RGBWW light strip lamp arrangement method and products

Abstract

The present invention relates to the technical field of lamp bead arrangement, and discloses a lamp bead arrangement method and product of an RGBWW lamp strip. The present invention obtains an RGB display performance map according to setting information of the RGB lamp strip, obtains a user target warm light display effect, simulates WW display based on the effect, generates a corresponding WW lamp bead setting plan, performs multi-dimensional value evaluation on multiple WW lamp bead setting plans, and performs parallel analysis to obtain several optimization plans, integrates and analyzes all WW lamp bead setting plans, generates a lamp bead arrangement guidance plan for user selection, generates a corresponding arrangement execution plan according to the user selection, optimizes the display effect and performance of the RGBWW lamp strip through precise simulation and evaluation, provides a solution for users to modify WW lamp beads on the basis of the original RGB lamp strip, and solves the problem of high cost of RGBWW lamp strips in the prior art.

Description

Technical Field

[0001] The present invention relates to the technical field of lamp bead arrangement, and in particular to a lamp bead arrangement method and product of an RGBWW lamp strip. Background Art

[0002] RGB light strip is a light strip with multiple RGB lamp beads installed in a specific order. The RGB lamp beads can emit red, green and blue colors. By adjusting the colors emitted by each lamp bead on the light strip at different times, more complex display effects can be achieved. WW lamp beads are lamp beads that emit warm white. They can be set on the RGB light strip to achieve color reflection with the original RGB lamp beads, thereby achieving a complex display effect based on the warm white tendency.

[0003] In the prior art, an RGBWW light strip is usually provided with RGBWW lamp beads on the light strip, that is, each lamp bead has the function of emitting four colors. This design method leads to an increase in the manufacturing cost of the RGBWW light strip. Summary of the invention

[0004] The object of the present invention is to provide a lamp bead arrangement method and product for an RGBWW lamp strip, aiming to solve the problem of high cost of the RGBWW lamp strip in the prior art.

[0005] The present invention is implemented in this way. In a first aspect, the present invention provides a method for arranging lamp beads of an RGBWW lamp strip, comprising:

[0006] Obtaining light strip setting information of an RGB light strip; wherein the RGB light strip is a light strip in which a plurality of RGB lamp beads are installed in an orderly manner, and the light strip setting information includes light strip specification information, lamp bead performance information, and lamp bead arrangement information;

[0007] Simulating the display performance of the RGB light strip according to the light strip setting information to obtain an RGB display performance graph of the RGB light strip;

[0008] Obtaining the user's target warm light display effect for the RGB light strip, and performing WW display simulation processing on the RGB display performance spectrum according to the target warm light display effect, so as to obtain a WW lamp bead setting plan corresponding to the target warm light display effect;

[0009] Conduct a multi-dimensional value assessment on the WW lamp bead setting plan, and conduct parallel analysis on the WW lamp bead setting plan based on the assessment results to obtain several other forms of WW lamp bead setting plans;

[0010] The various WW lamp bead setting plans are integrated and analyzed to obtain a lamp bead arrangement guidance plan for the user to choose and generate a corresponding arrangement execution plan based on the selection result.

[0011] In a second aspect, the present invention provides a lamp bead arrangement product of an RGBWW lamp strip, comprising: an RGB lamp strip, a plurality of RGB lamp beads and a plurality of WW lamp beads;

[0012] The RGB light strip is provided with a plurality of RGB mounting holes, and each of the RGB lamp beads is respectively arranged on the RGB light strip through the RGB mounting holes;

[0013] Each of the WW lamp beads has a connecting structure and a fixing structure, each of the WW lamp beads is electrically connected to the RGB mounting hole through the connecting structure, and each of the WW lamp beads is set at a specified position through the fixing structure, and the specified position is determined by the lamp bead arrangement method of the RGBWW lamp strip described in any one of the first aspects.

[0014] The present invention provides a method for arranging lamp beads of an RGBWW lamp strip, which has the following beneficial effects:

[0015] The present invention obtains an RGB display performance map according to the setting information of the RGB lamp strip, obtains the user's target warm light display effect, simulates the WW display based on the effect, generates a corresponding WW lamp bead setting plan, performs multi-dimensional value evaluation on multiple WW lamp bead setting plans, and performs parallel analysis to obtain several optimization plans, integrates and analyzes all WW lamp bead setting plans, generates a lamp bead arrangement guidance plan for the user to choose, generates a corresponding arrangement execution plan according to the user's choice, optimizes the display effect and performance of the RGBWW lamp strip through precise simulation and evaluation, and provides a solution for users to modify the WW lamp beads on the basis of the original RGB lamp strip, thereby solving the problem of high cost of the RGBWW lamp strip in the prior art. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 The present invention is a schematic diagram of the steps of a method for arranging lamp beads of an RGBWW lamp strip provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0017] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0018] The implementation of the present invention is described in detail below in conjunction with specific embodiments.

[0019] Reference Figure 1 As shown, a preferred embodiment of the present invention is provided.

[0020] In a first aspect, the present invention provides a method for arranging lamp beads of an RGBWW lamp strip, comprising:

[0021] S1: Obtaining light strip setting information of an RGB light strip; wherein the RGB light strip is a light strip in which a plurality of RGB lamp beads are installed in an orderly manner, and the light strip setting information includes light strip specification information, lamp bead performance information, and lamp bead arrangement information;

[0022] S2: simulating the display performance of the RGB light strip according to the light strip setting information to obtain an RGB display performance graph of the RGB light strip;

[0023] S3: obtaining a target warm light display effect of the user for the RGB light strip, and performing a WW display simulation process on the RGB display performance map according to the target warm light display effect, so as to obtain a WW lamp bead setting plan corresponding to the target warm light display effect;

[0024] S4: performing a multi-dimensional value assessment on the WW lamp bead setting plan, and performing parallel analysis on the WW lamp bead setting plan based on the assessment results to obtain several other forms of WW lamp bead setting plans;

[0025] S5: Integrate and analyze the various WW lamp bead setting plans to obtain a lamp bead arrangement guidance plan for the user to choose and generate a corresponding arrangement execution plan based on the selection result.

[0026] Specifically, in step S1 of the embodiment provided by the present invention, the light strip setting information of the RGB light strip is first obtained. The RGB light strip is a light strip with multiple RGB lamp beads installed in a specific order. The RGB lamp beads can emit three colors: red, green and blue. By adjusting the colors emitted by each lamp bead on the light strip at different times, a more complex display effect can be achieved.

[0027] More specifically, WW lamp beads are lamp beads that emit warm white light and can be set on RGB light strips to achieve color reflection with the original RGB lamp beads, thereby achieving a complex display effect based on the warm white tendency.

[0028] In the prior art, an RGBWW light strip is usually provided with RGBWW lamp beads on the light strip, that is, each lamp bead has the function of emitting four colors. This design method leads to an increase in the manufacturing cost of the RGBWW light strip.

[0029] Therefore, in the technical solution of the present invention, a new design idea is provided, that is, WW lamp beads are added to the original RGB light strip, so that the WW lamp beads and the RGB display effect of the original RGB light strip reflect each other to achieve an RGB warm light display effect.

[0030] It should be noted that in order to enable the WW lamp beads to be added to the RGB light strip, the WW lamp beads in the technical solution of the present invention need to be specifically designed, which includes a connecting structure and a fixing structure. The connecting structure has the function of docking with the lamp bead mounting holes of the RGB light strip to receive the power supply of the light strip. The fixing structure is a functional structure for fixing the WW lamp beads at the specified position of the light strip. Its function is to optimize the color modulation effect of the WW lamp beads by fixing the WW lamp beads at the specified position on the light strip.

[0031] It is understandable that different color projection effects can be achieved by setting WW lamp beads at different positions on the light strip. As for how to achieve the best WW lamp bead setting effect, it is necessary to first collect the light strip specification information, lamp bead performance information and lamp bead arrangement information of the RGB light strip, and perform performance simulation based on the collected information to determine the best WW lamp bead setting plan.

[0032] Specifically, in step S2 of the embodiment provided by the present invention, the display performance of the RGB light strip is simulated according to the light strip setting information to obtain an RGB display performance graph of the RGB light strip.

[0033] More specifically, the light strip specification information describes the size information of the RGB light strip to which the WW lamp beads are added, the lamp bead performance information is used to describe the display performance information of the RGB lamp beads originally set on the RGB light strip, and the lamp bead arrangement information is used to describe the arrangement layout information between the RGB lamp beads set on the RGB light strip.

[0034] More specifically, the display performance of the RGB light strip can be simulated through the light strip specification information, lamp bead performance information and lamp bead arrangement information to obtain an RGB display performance graph that displays the RGB display performance of the RGB light strip in various display modes.

[0035] More specifically, this step requires the user to enter the light strip setting information in advance, and the intelligent terminal with the corresponding execution program simulates it to obtain the RGB display performance spectrum.

[0036] Specifically, in step S3 of the embodiment provided by the present invention, the user's target warm light display effect for the RGB light strip is obtained, and the RGB display performance spectrum is simulated for WW display according to the target warm light display effect to obtain a WW lamp bead setting plan corresponding to the target warm light display effect.

[0037] More specifically, the setting of WW lamp beads is based on the user's target warm light display effect. The target warm light display effect is the overall display effect that the user hopes for the RGB light strip after adding the WW lamp beads. Therefore, it is necessary to first obtain the user's target warm light display effect, and then analyze the RGB display performance spectrum according to the target warm light display effect to obtain the WW lamp bead setting plan.

[0038] It is understandable that when the user interacts with the smart terminal to input the target warm light display effect, the effect displayed is not necessarily the effect the user actually wants, that is, there is a deviation between the user's input and the effect he wants. Therefore, it is necessary to interact with the user multiple times at this time. Each interaction shows the user a simulated effect of the target warm light display effect so that the user can adjust the input target warm light display effect until the final target warm light display effect is confirmed. After that, the WW display simulation processing of the RGB display performance map of the final target warm light display effect is started to obtain the WW lamp bead setting plan.

[0039] Specifically, the WW lamp bead setting plan is to add WW lamp beads to the RGB light strip, so that the light emission of the WW lamp beads can interact with the light emission of the original RGB lamp beads to increase the warm white display effect.

[0040] More specifically, the WW lamp bead setting plan includes the number and setting positions of WW lamp beads. Different setting positions of WW lamp beads bring different setting effects. It should be emphasized that there are two types of setting positions of WW lamp beads. The first is the mounting hole position corresponding to the RGB lamp strip provided to the RGB lamp beads, that is, the WW lamp beads are used to directly replace the RGB lamp beads. The second is the position on the RGB light strip that has a certain deviation from the RGB lamp beads. At this time, the WW lamp beads are required to have a specific connecting structure and a fixing structure. The connecting structure has a certain extension range, that is, one end of the connecting structure can be used to connect to the mounting hole of the RGB lamp bead to be electrically connected to the RGB light strip, and because the connecting structure has a certain extension range, the WW lamp bead itself can be placed in other positions outside the mounting hole, and the original RGB lamp beads can also be reinstalled, and the function of the fixing structure is to fix the WW lamp bead in other positions outside this mounting hole.

[0041] Specifically, in step S4 of the embodiment provided by the present invention, a multi-dimensional value evaluation is performed on the WW lamp bead setting plan, and the WW lamp bead setting plan is analyzed in parallel based on the evaluation results to obtain several other forms of WW lamp bead setting plans.

[0042] More specifically, the WW lamp bead setting plan includes the number of lamp bead settings and the positions of lamp bead settings. Different numbers and positions represent the cost and difficulty of plan implementation. The WW lamp bead setting plan obtained in the first round of plan analysis has the scheme effect that is closest to the target warm light display effect, but its cost and difficulty have high problems. Therefore, it can be adjusted based on the WW lamp bead setting plan. On the basis of slightly reducing the scheme effect, a new WW lamp bead setting plan can be obtained to achieve a balance between cost, difficulty and effect. After that, the various WW lamp bead setting plans are handed over to the user for weighing and selection to determine the final implementation plan.

[0043] Specifically, in step S5 of the embodiment provided by the present invention, each WW lamp bead setting plan is integrated and analyzed to obtain a lamp bead arrangement guidance plan for the user to select and generate a corresponding arrangement execution plan based on the selection result.

[0044] More specifically, the lamp arrangement guidance program provides users with a variety of WW lamp setting plans, and shows users the cost, difficulty, effect and other value assessments of these WW lamp setting plans for users to consider and make a final choice.

[0045] More specifically, after the user interacts with the lamp bead arrangement guidance plan through the smart terminal, the WW lamp bead setting plan selected by the user is confirmed, and the detailed execution steps of the plan are analyzed to obtain the arrangement execution plan. The arrangement execution plan includes how to set up and analyze the RGB light strip to guide the user to add WW lamp beads to the RGB light strip.

[0046] The present invention provides a method for arranging lamp beads of an RGBWW lamp strip, which has the following beneficial effects:

[0047] The present invention obtains an RGB display performance map according to the setting information of the RGB lamp strip, obtains the user's target warm light display effect, simulates the WW display based on the effect, generates a corresponding WW lamp bead setting plan, performs multi-dimensional value evaluation on multiple WW lamp bead setting plans, and performs parallel analysis to obtain several optimization plans, integrates and analyzes all WW lamp bead setting plans, generates a lamp bead arrangement guidance plan for the user to choose, generates a corresponding arrangement execution plan according to the user's choice, optimizes the display effect and performance of the RGBWW lamp strip through precise simulation and evaluation, and provides a solution for users to modify the WW lamp beads on the basis of the original RGB lamp strip, thereby solving the problem of high cost of the RGBWW lamp strip in the prior art.

[0048] Preferably, the step of simulating the display performance of the RGB light strip according to the light strip setting information to obtain an RGB display performance graph of the RGB light strip includes:

[0049] S21: performing digital simulation of a base part of the RGB light strip according to the light strip specification information to obtain a base feedback model;

[0050] S22: simulating the unit performance of each of the RGB lamp beads according to the lamp bead performance information to obtain an RGB unit model, and combining each of the RGB unit models with the substrate feedback model according to the lamp bead arrangement information to obtain an RGB light strip simulation model;

[0051] S23: Based on the RGB light strip simulation model, respectively simulate the performance of several working modes of the RGB light strip to obtain RGB display effect characteristics of the RGB light strip corresponding to various working modes; wherein the working modes include synchronous color mode, alternating color mode, and progressive color mode;

[0052] S24: The RGB display effect characteristics of the RGB light strip corresponding to various working modes together constitute the RGB display performance spectrum.

[0053] Specifically, the basic structure of the RGB light strip is digitally modeled according to the specification information of the light strip. This process usually involves simulating the structure and electrical characteristics of the light strip. The specification information of the light strip includes basic parameters such as the number of lamp beads per meter, total length, voltage and power. With this information, the electrical system model and physical structure model of the RGB light strip can be constructed.

[0054] More specifically, through digital simulation of the light strip specifications, the base feedback model obtained can reflect the electrical and structural performance of the light strip (such as current, voltage distribution, signal transmission, etc.). This provides a basis for subsequent performance simulation. The base feedback model is used to describe the basic control and response characteristics of the light strip, helping to understand how to control the brightness, color and other properties of the RGB lamp beads.

[0055] More specifically, based on the performance information of the lamp beads, the behavior and response characteristics of each RGB lamp bead (or unit) are simulated to obtain the performance model of the RGB lamp beads. The lamp bead performance information includes the maximum brightness, color temperature, power requirement, response time, color gamut, etc. of each lamp bead. Through these parameters, a model can be created for each lamp bead, which describes the performance of the lamp bead under different input conditions.

[0056] More specifically, the RGB unit model models each lamp bead separately to simulate its performance under different working conditions (such as the response to different colors, the effect of brightness adjustment, etc.). These unit models can accurately simulate the working behavior and performance of a single lamp bead, ensuring that the final simulation effect is consistent with the performance of the actual lamp bead.

[0057] More specifically, according to the arrangement information of the lamp beads, each RGB unit model is combined with the substrate feedback model to obtain a simulation model of the entire RGB light strip. The lamp bead arrangement information includes the arrangement of the lamp beads, the control method (series or parallel control, independent control, segmented control, etc.) and the number of the lamp beads.

[0058] More specifically, after combining each RGB unit model with the base model, the control and display behavior of the entire RGB light strip can be simulated, taking into account factors such as the electrical connection between the lamp beads and the signal transmission delay.

[0059] More specifically, through combined processing, the resulting RGB light strip simulation model can accurately describe the dynamic display effect of the entire light strip, covering the electrical, optical properties and control methods of the lamp beads. This simulation model can provide a precise digital foundation for subsequent working form simulations, ensuring that the performance in different working modes meets expectations.

[0060] More specifically, an RGB light strip simulation model is used to simulate the performance of the RGB light strip under different working modes to obtain the corresponding RGB display effect characteristics. The different working modes include: synchronous color mode: all RGB lamp beads synchronously display the same color (that is, the RGB values ​​of all lamp beads are the same), alternating color mode: RGB lamp beads alternately display different colors (for example, the color of the lamp beads changes at intervals of time or position), progressive color mode: the color of the RGB lamp beads gradually changes or transitions in sequence (for example, from red to green, and then to blue).

[0061] More specifically, in this step, it is necessary to simulate the behavior of the RGB light strip under these working modes according to different control strategies based on the simulation model of the RGB light strip, including: the color change of the lamp beads, the changes in parameters such as brightness and color temperature during the display process, and the color balance and transition effects under each working mode.

[0062] More specifically, the simulation of each working form can demonstrate the performance of the RGB light strip under different control modes, such as the smoothness of color transition, color saturation, brightness uniformity, etc. The simulation results provide a basis for generating an RGB display performance map, which can intuitively demonstrate the display characteristics of the RGB light strip under different working forms.

[0063] More specifically, the RGB display effect characteristics under different working modes (such as color temperature, brightness, color saturation under synchronous, alternating and progressive color modes) are integrated together to generate an RGB display performance map. The RGB display performance map is a multi-dimensional visualization map that shows the color performance, brightness changes, color temperature adjustment and other characteristics of the RGB light strip under different working modes.

[0064] More specifically, the graphs may include: color gamut graph: showing the color coverage of the RGB light strip under different controls, brightness distribution graph: showing the performance of the light strip under different brightnesses, color temperature change graph: showing the color temperature change trend of the RGB light strip under different working modes.

[0065] Preferably, the steps of obtaining a target warm light display effect of the user for the RGB light strip, and performing a WW display simulation process on the RGB display performance spectrum according to the target warm light display effect to obtain a WW lamp bead setting plan corresponding to the target warm light display effect include:

[0066] S31: receiving a target tendency instruction of a user through an interactive port, and performing a WW display correction on the RGB display performance map according to the target tendency instruction to obtain a WW display map corresponding to the target tendency instruction;

[0067] S32: continuously receiving the user's target tendency instruction for the WW display map through the interactive port, and changing the WW display map until the user finally confirms the target WW display map required as the target warm light display effect;

[0068] S33: taking the target warm light display effect as a target feature, taking the RGB display performance spectrum as a base feature, and performing a display phase difference analysis on the base feature according to the target feature to obtain a display contribution feature of the WW lamp bead;

[0069] S34: Acquire performance information of a single WW lamp bead, and perform a simulation analysis of the warm light effect on the performance information of the single WW lamp bead according to the RGB display performance spectrum, so as to obtain warm light effect characteristics of the single WW lamp bead for the RGB display performance spectrum;

[0070] S35: performing an analysis process of the display contribution feature according to the warm light effect feature to obtain a WW lamp bead setting plan for the WW lamp bead corresponding to the target warm light display effect.

[0071] Specifically, the user's preference instructions for the warm light display effect are received through an interactive port (such as a graphical interface, a mobile application, etc.). The user may provide guidance according to different display requirements (such as color temperature adjustment, brightness enhancement or reduction, highlighting of certain colors, etc.).

[0072] More specifically, based on the user's target preference instructions, the existing RGB display performance map is corrected to adjust the color temperature, brightness, color balance, etc. to adapt to the target warm light display effect. This correction process involves: adjusting the color temperature range to suit the user's preferences, changing the color saturation or brightness, and adjusting the output of the RGB lamp beads.

[0073] More specifically, by modifying the RGB display performance map according to the target tendency instruction, the display effect of the RGB light strip can be accurately adjusted to make it closer to the user's needs. For example, the user may want the display effect of the light strip to be closer to warm white or cool white. The modified map can provide these specific visual effects. This step enhances the user's personalized experience through interactive design, so that the display effect of the RGB light strip is aligned with the user's expectations.

[0074] More specifically, based on the revised RGB display performance map, the user's feedback instructions are received again through the interactive port to further adjust the WW display map. For example, the user may require higher brightness or the dominance of a certain color. According to the user's feedback, the WW display map is repeatedly revised until the user finally confirms the required target warm light display effect. Through continuous interactive optimization, a display effect that ultimately meets the user's needs is achieved.

[0075] More specifically, through this cyclic adjustment process, users can participate in the adjustment of the final display effect to ensure that the display effect of the RGB light strip meets their actual needs. The cyclic interactive adjustment can refine the final result and make the RGB light strip more in line with the needs of specific environments (such as home, office or commercial use).

[0076] More specifically, the target warm light display effect (target feature) confirmed by the user is compared and analyzed with the RGB display performance spectrum (base feature), and the display difference is calculated. By comparing the target warm light display effect with the RGB light strip simulation spectrum, the difference between them is analyzed, and the specific differences between the RGB light strip and the target warm light effect are clarified. These differences may include deviations in color temperature, brightness, color balance, etc. According to the analysis results, it is concluded that in order to achieve the target warm light display effect, it is necessary to increase the display contribution characteristics of each WW lamp bead set on the RGB light strip.

[0077] More specifically, through phase difference analysis, it is possible to accurately identify which parts of the RGB light strip need to be optimized in the target warm light display effect (for example, insufficient brightness in certain areas, inaccurate color temperature, etc.). This analysis helps to formulate an implementation plan and clarify the role of each WW lamp bead in achieving the target effect, thereby providing data support for the next steps.

[0078] More specifically, the specific performance data of each WW lamp bead is obtained, including its brightness, color temperature, power consumption, response time, etc. According to the RGB display performance spectrum and the performance information of the lamp bead, the performance of each WW lamp bead under different conditions is simulated, especially the changes in color temperature, brightness, etc., and its impact on the final display effect is predicted.

[0079] More specifically, by simulating the performance of each WW lamp bead, we can foresee how it will affect the final effect of the RGB display performance map in actual use, ensuring that each lamp bead can perform at its best in the appropriate position and conditions. This step provides detailed data support for the subsequent WW lamp bead settings and helps clarify the working parameters of each WW lamp bead.

[0080] More specifically, based on the effect characteristics of the WW lamp beads obtained in the previous steps, the display contribution characteristics are combined with the lamp bead performance characteristics to analyze the optimal configuration of each WW lamp bead, involving detailed settings of the brightness, color temperature, position, color control, etc. of each WW lamp bead to ensure that they can accurately achieve the target warm light display effect.

[0081] More specifically, finally, based on the analysis results, a detailed WW lamp bead setting plan was developed, including: the specific configuration of the lamp beads (such as position, quantity, and arrangement), the control parameters of each lamp bead (such as color temperature and brightness adjustment range), working mode and control strategy, to ensure that the overall light strip can achieve the expected warm light display effect under different working modes.

[0082] It is understandable that through interactive adjustment and feedback, we can ensure that the display effect of the RGB light strip meets user needs, through display phase difference analysis, we can accurately identify the difference between the target display effect and the actual RGB light strip performance, and through WW lamp bead performance simulation and contribution feature analysis, we can formulate a specific lamp bead setting plan to achieve accurate display effects. The core of this process is personalized and iterative optimization to ensure that every detail meets user expectations and provide flexible and accurate display solutions.

[0083] Preferably, the step of simulating and analyzing the warm light effect of the performance information of a single WW lamp bead according to the RGB display performance spectrum to obtain the warm light effect characteristics of the single WW lamp bead for the RGB display performance spectrum includes:

[0084] S341: simulating the independent performance of a single WW lamp bead according to the performance information of the WW lamp bead to obtain a WW unit model;

[0085] S342: Substituting the WW unit model into the RGB light strip simulation model to obtain an RGBWW light strip simulation model, and repeatedly debugging the setting position of the WW unit model according to the relative position relationship between the WW unit model and each of the RGB unit models in the RGBWW light strip simulation model to obtain several simulated setting positions of the WW unit model, each of which constitutes an RGBWW light strip simulation model in an analytical form;

[0086] S343: Perform warm light effect simulation of the WW unit model on the RGBWW lamp strip simulation models of various analysis forms respectively to obtain warm light simulation effects corresponding to various analysis forms, and the warm light simulation effects of the WW lamp beads corresponding to various analysis forms together constitute the warm light effect characteristics of the WW lamp beads.

[0087] Specifically, the detailed performance parameters of each WW lamp bead are obtained, including its brightness, color temperature, power, color gamut and other information. Based on this performance information, an independent WW lamp bead performance simulation is performed to obtain a WW unit model. This model represents the performance of the WW lamp bead under different working conditions, such as: color output, brightness response under different voltage, temperature and color temperature settings. Through independent simulation, the performance characteristics of a single WW lamp bead can be fully understood, which is crucial for subsequent simulation debugging. The model provides basic data on the performance of the lamp bead in the RGB light strip, making the understanding of the lamp bead performance more accurate.

[0088] More specifically, the obtained WW unit model is substituted into the existing RGB light strip simulation model. This RGB light strip simulation model is usually a multi-channel model that can simulate the display effect of RGB lamp beads and WW lamp beads together. By merging these two models, a new RGBWW light strip simulation model is formed, which can take into account the performance of both RGB units and WW units.

[0089] More specifically, by combining the simulation data of the RGB unit and the WW unit, the interactive effects of the RGB lamp beads and the WW lamp beads can be considered at the same time. This step can provide a more comprehensive environment for subsequent simulation debugging, in which the collaborative working effect of the RGB and WW lamp beads can be accurately evaluated.

[0090] More specifically, according to the relative position relationship between the RGB lamp beads and the WW lamp beads in the RGBWW lamp strip simulation model, the setting position of the WW unit model is debugged. Because the positions of the RGB and WW lamp beads in the physical space will directly affect their color mixing effects, brightness distribution and color coordination, etc., the positions of the WW lamp beads need to be adjusted multiple times to ensure the optimal display effect. By repeatedly adjusting the position of the WW unit in the light strip (such as front and back, up and down, left and right, etc.), the influence of WW lamp beads in different positions on the overall display effect of the RGB light strip is simulated.

[0091] More specifically, the position relationship debugging can find the best placement position for the WW lamp beads, minimize the mismatch or interference between the RGB and WW lamp beads, and ensure the balance of display effects when the two work together. The purpose of this debugging process is to achieve seamless integration of RGB light strips and WW light strips, so that their color temperature and brightness reach the optimal state.

[0092] More specifically, during the debugging process, a variety of different RGBWW light strip simulation models are generated according to the different WW lamp bead positions. Each simulation setting position corresponds to a unique analysis form, and each analysis form will show a different warm light effect when simulated.

[0093] More specifically, by generating multiple simulated setting positions, users can be provided with a variety of possible light strip configuration schemes. Comparison of these schemes can help determine the most suitable arrangement of lamp beads, thereby further optimizing the display effect. Each setting position represents a different possibility, providing more basis for subsequent selection and increasing the flexibility of the scheme.

[0094] More specifically, for each analysis form (i.e. different WW lamp bead setting positions), the effect simulation of the WW unit model is performed. This process simulates how WW lamp beads under different settings affect the overall performance of the RGB light strip, including color temperature adjustment, brightness change, color coordination, etc. The simulation content is: For the simulation of each setting position, it can be evaluated whether the WW lamp beads effectively enhance the color temperature adjustment of the RGB light strip, whether the WW lamp beads improve the brightness uniformity of the RGB light strip at different positions, and whether the color coordination between the WW lamp beads and the RGB lamp beads is good.

[0095] More specifically, through simulation of various forms of analysis, the impact of different setting positions on the effect of WW lamp beads can be quantified to help choose the most appropriate lamp bead layout. This process ensures that the insertion of WW lamp beads will not affect the overall display effect, but will improve the overall performance of the RGB light strip.

[0096] More specifically, all simulation results are summarized to obtain the final warm light effect characteristics of the WW lamp beads. These effect characteristics may include the impact of the WW lamp beads on color temperature, brightness improvement, color enhancement, etc. These characteristics can be quantified from multiple dimensions, such as how the WW lamp beads improve the color temperature range of the RGB light strip, its improvement in color vividness, or its color uniformity in different positions.

[0097] More specifically, through a combination of simulation and position debugging, the effect characteristics of each WW lamp bead were obtained. These characteristics provide basic data for further lamp bead optimization and configuration, and can be used to formulate accurate lamp bead setting plans. This step helps developers understand the specific role of WW lamp beads in RGB light strips and how to optimally configure these lamp beads in the design to achieve the best display effect.

[0098] Preferably, the step of performing an analytical processing of the display contribution feature according to the warm light effect feature to obtain a WW lamp bead setting plan for the WW lamp bead corresponding to the target warm light display effect includes:

[0099] S351: performing target reproduction analysis on the display contribution feature according to the warm light effect feature to obtain the installation distribution feature of the WW lamp beads; wherein the installation distribution feature is used to describe the number requirement and the setting position requirement of the WW lamp beads;

[0100] S352: Obtain the lamp bead mounting hole distribution information of the RGB light strip, and analyze the mounting hole connection mode of the WW lamp bead installation distribution characteristics according to the lamp bead installation hole distribution information, so as to obtain the mounting hole connection mode of each WW lamp bead corresponding to the installation distribution characteristics; wherein the mounting hole connection mode is used to describe how to fix the connection wire of the WW lamp bead with the lamp bead mounting hole to realize the electrical connection between the WW lamp bead and the RGB light strip;

[0101] S353: Analyze the fixing method of the designated position of the installation distribution feature according to the fixing structure information of the WW lamp bead, so as to obtain the fixing method of the designated position of each WW lamp bead corresponding to the installation distribution feature; wherein the fixing method of the designated position is used to describe how to fix the WW lamp bead to the designated position corresponding to the installation distribution feature on the RGB light strip through the fixing structure of the WW lamp bead;

[0102] S354: The mounting hole connection method and the designated position fixing method together constitute the WW lamp bead setting plan.

[0103] Specifically, the display contribution characteristics are analyzed based on the warm light effect characteristics of the WW lamp beads obtained in the previous simulation (such as color temperature, brightness, color coordination, etc.). The purpose of this step is to understand how the WW lamp beads contribute to the overall display effect of the RGB light strip, especially how to adjust and optimize the color temperature, brightness distribution, etc.

[0104] More specifically, based on these warm light effect characteristics, target reproduction analysis is performed, which means determining how to adjust the position and number of WW lamp beads so that they can reproduce or optimize the target display effect. For example, if the goal is to increase the overall brightness or optimize the color temperature, the distribution pattern of WW lamp beads needs to be adjusted to ensure that the RGB light strip achieves the best visual effect. The results of the analysis will derive the installation distribution characteristics of WW lamp beads. These characteristics describe the required number of WW lamp beads and their setting positions in the RGB light strip.

[0105] More specifically, by analyzing the characteristics of the warm light effect, we can clearly understand the requirements for the quantity and position of WW lamp beads under specific display goals. The results of this stage provide a basis for subsequent installation planning, ensuring that the layout of WW lamp beads can accurately achieve the target display effect and avoid unsatisfactory effects caused by improper positioning or insufficient quantity.

[0106] More specifically, at this stage, it is necessary to obtain the distribution information of the mounting holes of the RGB light strip itself. These mounting holes are where physical support and electrical connection are provided for the installation of lamp beads. Different RGB light strips have different lamp bead spacing and hole distribution. Therefore, it is necessary to obtain the information of the mounting holes according to the design of the specific light strip. By analyzing the distribution information of the mounting holes, it is further determined how the WW lamp beads are connected to these mounting holes. The focus of the analysis is how to connect the WW lamp beads to the electrical interface of the RGB light strip through cables, connecting wires, plugs, etc. The connection methods may include: welding, plug-in connection, snap-on connection, etc. According to the different light strip structures and designs, choose the appropriate connection method.

[0107] More specifically, by analyzing the mounting holes and connection methods, we ensure that the WW lamp beads can be stably and reliably electrically connected to the RGB light strip. This stage helps ensure that the WW lamp beads can work properly and that electrical failures will not occur during the installation process due to improper connection methods. Reasonable connection methods can avoid physical interference between the connecting wires and other components, ensuring the stable operation of the entire light strip system.

[0108] More specifically, each WW lamp bead usually has its own fixing structure, which may include clips, screws, glue and other fixing methods. It is necessary to obtain the specific fixing structure information of the WW lamp beads to ensure that they can be firmly installed on the RGB light strip. According to the installation distribution characteristics of the WW lamp beads, analyze how to firmly fix the WW lamp beads on the RGB light strip. The purpose of this step is to ensure that the WW lamp beads will not move, loosen or fall off during operation, affecting the display effect. According to the design of the RGB light strip, choose a suitable fixing method. For example, screw fixing may be chosen for some light strips, while for other more flexible designs, clip-on fixing or adhesive fixing may be chosen.

[0109] More specifically, through the analysis of the fixing method, it is ensured that the WW lamp beads can be stably installed on the RGB light strip to avoid lamp bead displacement, damage or other problems caused by loose fixing. A reasonable fixing method can not only ensure stability, but also improve installation efficiency and simplify the assembly process.

[0110] More specifically, after completing the previous analyses, combined with the installation distribution characteristics of WW lamp beads, the connection method of the mounting holes and the fixing method, a complete WW lamp bead setting plan is finally formed. This plan will comprehensively consider factors such as the number of lamp beads, their location, connection method and fixing method.

[0111] More specifically, the plan content: The WW lamp bead setting plan will include: the number and position of lamp beads: clarify how many WW lamp beads are needed and where they are placed respectively, the installation hole connection method: clarify how the WW lamp beads are connected to the electrical interface of the RGB light strip and what connection method is used, the fixing method: clarify how each WW lamp bead is firmly installed in the specified position of the light strip through the fixing structure.

[0112] More specifically, by integrating all the analysis results, a complete and reasonable WW lamp bead setting plan is obtained, which can ensure that the installation of WW lamp beads in the RGB light strip not only meets the display effect requirements, but also guarantees electrical connection and physical stability.

[0113] Preferably, the steps of performing a multi-dimensional value assessment on the WW lamp bead setting plan, and performing parallel analysis on the WW lamp bead setting plan based on the assessment results to obtain several other forms of WW lamp bead setting plans include:

[0114] S41: performing a value assessment of the number of lamp beads required for the WW lamp bead setting plan to obtain a material cost value index;

[0115] S42: Evaluate the execution complexity of the WW lamp bead installation form for the WW lamp bead setting plan to obtain an installation cost value index; wherein the material cost value index and the installation cost value index are both part of the evaluation result;

[0116] S43: judging the material cost value index and the installation cost value index according to the preset standard, and when the judgment result shows that it exceeds the preset standard, reducing the number of the WW lamp bead setting plans, and correcting the setting position of the WW lamp bead setting plan based on the standard after the number reduction, so as to obtain other forms of WW lamp bead setting plans.

[0117] Specifically, based on the installation distribution characteristics and display requirements of WW lamp beads, the required number of lamp beads is evaluated. This evaluation needs to be combined with the following factors: quality requirements for display effects, such as brightness, color temperature, display uniformity, etc.; technical indicators such as power consumption, life, efficiency, etc. of WW lamp beads; unit cost of lamp beads, taking into account bulk discounts and purchase price differences for different quantities of lamp beads, calculate the material cost value index: based on the evaluation of the number of lamp beads, calculate the material cost value index, which represents the relative high or low total material cost required based on the distribution of the number of lamp beads in the plan. For example, if the number of lamp beads is large and the cost of each lamp bead is high, then the material cost value index is high; otherwise, it is low.

[0118] More specifically, the material cost value index can accurately predict the material cost of the entire WW lamp bead setting plan, provide a basis for subsequent decision-making, help optimize resource allocation, reduce unnecessary waste, provide a basis for project budgeting, and ensure that the final plan can be completed within the budget while maintaining the expected display effect.

[0119] More specifically, the installation complexity of WW lamp beads is evaluated, including the number of mounting holes, the complexity of the connection method, the method of fixing the lamp beads to the RGB light strips, etc. Specifically, these factors involve: the time and labor costs required to install each WW lamp bead; the tools and equipment required during the installation process, and their costs; the accuracy requirements of the installation, and whether special technical means are required for positioning and fixing.

[0120] More specifically, based on the evaluated execution complexity, the value index of the installation cost is calculated. This index reflects the cost of installing each lamp bead under the existing setting scheme, including factors such as labor, tools, and time. Complex installation methods will lead to increased installation costs.

[0121] More specifically, by evaluating the complexity of installation, it is possible to identify which links may make the installation too difficult or too costly, and then optimize these links, simplify the installation process, and help reduce labor and equipment costs during the installation process, thereby improving the cost-effectiveness of the entire project.

[0122] More specifically, evaluation criteria setting: setting preset standards based on the project's budget, cost control standards and technical requirements (for example: material costs are controlled within a certain range, and installation costs do not exceed a certain percentage of the budget).

[0123] More specifically, after conducting a value assessment on the lamp bead setting plan, the obtained material cost value index and installation cost value index are compared with the preset standards to determine whether they exceed the acceptable range. If both indices are within the standard range, the plan can continue to be implemented; if it exceeds the standard, it needs to be optimized.

[0124] More specifically, when the material cost or installation cost exceeds the preset standard, the cost can be optimized by adjusting the number of lamp beads. Specific methods include: reducing the number of lamp beads in certain areas, especially some areas with less impact on the effect, and recalculating the demand to determine whether the number of lamp beads can be reduced without affecting the overall display effect.

[0125] More specifically, after the number of lamp beads is reduced, the setting position needs to be corrected. The adjusted setting position should consider: still ensuring the target effect (such as brightness, color temperature, display uniformity, etc.), ensuring cost optimization, and effectively controlling the material cost and installation cost of the project by reducing the number of lamp beads and optimizing the setting position, avoiding overbudget, and ensuring that the final display effect is not affected, while reasonably reducing resource investment and improving the cost performance of the overall solution.

[0126] More specifically, after reducing the number of lamp beads, the setting position needs to be adjusted according to the number and position of the remaining lamp beads. The correction process includes: while keeping the number of lamp beads in the most critical display area unchanged, appropriately reduce or adjust the lamp beads in some non-critical areas to ensure that the adjusted distribution can still achieve the target effect, such as by adjusting the arrangement spacing or layout of the lamp beads to ensure uniform color temperature and brightness.

[0127] More specifically, according to the above analysis and adjustment process, several different WW lamp bead setting plans are generated. These plans are different variations based on different cost control and display effect requirements, covering adjustments in many aspects such as the number of lamp beads, installation locations, and connection methods.

[0128] More specifically, through a multi-dimensional value evaluation of WW lamp bead setting plans, different forms of WW lamp bead setting plans can be finally obtained. These plans can not only meet the technical requirements of display effects, but also optimize costs and installation complexity.

[0129] Preferably, the steps of integrating and analyzing the various WW lamp bead setting plans to obtain a lamp bead arrangement guidance plan for the user to select and generating a corresponding arrangement execution plan according to the selection result include:

[0130] S51: Arrange and process each of the WW lamp bead setting plans to obtain a plan sequence, and generate a plan evaluation sequence for the plan sequence according to the value evaluation results corresponding to each of the WW lamp bead setting plans;

[0131] S52: combining the plan sequence and the plan evaluation sequence in sequence, and generating corresponding interactive ports based on the plan sequence to obtain a lamp bead arrangement guidance scheme;

[0132] S53: receiving a user's selection instruction through the interactive port of the lamp bead arrangement guidance scheme, and selecting a corresponding WW lamp bead setting plan from the lamp bead arrangement guidance scheme according to the selection instruction, and performing a detailed analysis and display of the setting steps of the selected WW lamp bead setting plan to obtain the arrangement execution plan.

[0133] Specifically, all feasible WW lamp bead setting plans are arranged according to specific standards (such as the number of lamp beads, installation cost, display effect, etc.). The arrangement basis may include: display effect: such as brightness uniformity, color temperature consistency, etc.; cost control: including material cost and installation cost; execution complexity: such as installation difficulty, time required, labor cost, etc.

[0134] More specifically, based on the results of the arrangement processing, a sequence containing all lamp bead setting plans is generated. This sequence is a priority-ordered list based on the comprehensive evaluation score of the plan or other optimization criteria. Through the arrangement processing, the plan sequence can provide a structured reference, making subsequent selections more concise and clear.

[0135] More specifically, each WW lamp bead setting plan has a corresponding value assessment result, which is usually a comprehensive score of various dimensions such as material cost value index, installation cost value index, and display effect. All plans are sorted according to their evaluation results (such as comprehensive cost, display effect, etc.) to obtain a plan evaluation sequence. The plans ranked high in the evaluation sequence are usually the ones with the best technology, cost and effect.

[0136] More specifically, the plan evaluation sequence can intuitively display the comprehensive performance of each plan in different dimensions. Through quantitative analysis of value assessment, it can provide users with clear selection criteria to avoid subjective judgment bias.

[0137] More specifically, the plan sequence and the plan evaluation sequence are matched and combined one by one. Each plan corresponds to a specific evaluation value. Through this combination, users can clearly see the evaluation results behind each plan, helping them make choices.

[0138] More specifically, based on the above combination results, an interactive port is generated for each plan. The role of the interactive port is to provide a user interface through which users can view the detailed information of each plan and make interactive selections. The interactive port of each plan can contain elements such as buttons, icons, descriptions, selection boxes, etc., allowing users to select, modify or view detailed information.

[0139] More specifically, by generating an interactive port, an intuitive and easy-to-operate interface can be provided to users, allowing users to make decisions more efficiently and accurately during the plan selection process.

[0140] More specifically, the user inputs selection instructions through the interactive port, and these instructions are usually for the user to select a plan according to his or her own needs (for example, the user may select a plan that best fits the budget and has a better display effect, or select a plan that is easy to install).

[0141] More specifically, according to the user's selection instructions, the corresponding WW lamp bead setting plan is extracted from the lamp bead arrangement guidance plan, and the plan will match the display effect, cost control and other requirements selected by the user to form a final plan.

[0142] More specifically, according to the WW lamp setting plan selected by the user, a detailed analysis and display will be carried out. The specific contents include: the specific installation position and quantity of each lamp bead; detailed description of the display effect, including brightness, color temperature, etc.; installation steps and matters needing attention, including construction process, tool requirements, etc.

[0143] In a second aspect, the present invention provides a lamp bead arrangement product of an RGBWW lamp strip, comprising: an RGB lamp strip, a plurality of RGB lamp beads and a plurality of WW lamp beads;

[0144] The RGB light strip has a plurality of RGB mounting holes, and each RGB lamp bead is respectively arranged on the RGB light strip through the RGB mounting holes;

[0145] Each WW lamp bead has a connecting structure and a fixing structure, each WW lamp bead is electrically connected to the RGB mounting hole through the connecting structure, and each WW lamp bead is set at a specified position through the fixing structure, and the specified position is determined by the lamp bead arrangement method of the RGBWW lamp strip described in any one of the first aspects.

[0146] It should be noted that the connection structure and the RGB mounting hole can be directly connected, that is, the WW lamp beads are directly replaced with the RGB lamp beads, or they can be embedded into the original RGB mounting holes through the connection structure. Without replacing the original RGB lamp beads, the electrical connection of the WW lamp beads is achieved through the connection structure, and the WW lamp beads are fixedly installed in a designated position on the RGB light board different from the RGB mounting hole through the fixing structure.

[0147] It is understandable that when implementing the latter installation method, the connection structure needs to be a specially designed expandable structure, and the end is a slender sheet-like electrical connection component that can be embedded in the mounting hole to achieve electrical connection with the RGB light board, and the WW lamp beads can be used to select their specific setting position.

[0148] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A method for arranging lamp beads of an RGBWW lamp strip, characterized in that: include: Obtaining light strip setting information of an RGB light strip; wherein the RGB light strip is a light strip in which a plurality of RGB lamp beads are installed in an orderly manner, and the light strip setting information includes light strip specification information, lamp bead performance information, and lamp bead arrangement information; Simulating the display performance of the RGB light strip according to the light strip setting information to obtain an RGB display performance graph of the RGB light strip; Obtaining the target warm light display effect of the user for the RGB light strip, and performing a simulation process of WW display on the RGB display performance spectrum according to the target warm light display effect, so as to obtain a WW lamp bead setting plan corresponding to the target warm light display effect; Conduct a multi-dimensional value assessment on the WW lamp bead setting plan, and conduct parallel analysis on the WW lamp bead setting plan based on the assessment results to obtain several other forms of WW lamp bead setting plans; Integrate and analyze the various WW lamp bead setting plans to obtain a lamp bead arrangement guidance plan for the user to select and generate a corresponding arrangement execution plan based on the selection result; The steps of obtaining a user's target warm light display effect for the RGB light strip, and performing WW display simulation processing on the RGB display performance spectrum according to the target warm light display effect to obtain a WW lamp bead setting plan corresponding to the target warm light display effect include: receiving a target tendency instruction from a user through an interactive port, and performing a WW display correction on the RGB display performance map according to the target tendency instruction to obtain a WW display map corresponding to the target tendency instruction; Continuously receiving the user's target tendency instruction for the WW display map through the interactive port, and changing the WW display map until the user finally confirms the target WW display map required as the target warm light display effect; The target warm light display effect is taken as the target feature, the RGB display performance spectrum is taken as the base feature, and a display phase difference analysis is performed on the base feature according to the target feature to obtain the display contribution feature of the WW lamp bead; Acquire the performance information of a single WW lamp bead, and perform a simulation analysis of the warm light effect on the performance information of the single WW lamp bead according to the RGB display performance spectrum, so as to obtain the warm light effect characteristics of the single WW lamp bead for the RGB display performance spectrum; The display contribution characteristics are analyzed and processed according to the warm light effect characteristics to obtain a WW lamp bead setting plan for the WW lamp bead corresponding to the target warm light display effect.

2. The method for arranging lamp beads of an RGBWW lamp strip according to claim 1, characterized in that: The step of simulating the display performance of the RGB light strip according to the light strip setting information to obtain an RGB display performance graph of the RGB light strip includes: Performing digital simulation of the base part of the RGB light strip according to the light strip specification information to obtain a base feedback model; Simulating the unit performance of each of the RGB lamp beads according to the lamp bead performance information to obtain an RGB unit model, and combining each of the RGB unit models with the substrate feedback model according to the lamp bead arrangement information to obtain an RGB light strip simulation model; Based on the RGB light strip simulation model, several working modes of the RGB light strip are respectively simulated to obtain the RGB display effect characteristics of the RGB light strip corresponding to various working modes; wherein the working modes include synchronous color mode, alternating color mode, and progressive color mode; The RGB display effect characteristics of the RGB light strip corresponding to various working modes together constitute the RGB display performance spectrum.

3. The lamp bead arrangement method of the RGBWW lamp strip according to claim 2, characterized in that: The step of simulating and analyzing the warm light effect of the performance information of a single WW lamp bead according to the RGB display performance spectrum to obtain the warm light effect characteristics of the single WW lamp bead for the RGB display performance spectrum includes: Simulating the independent performance of a single WW lamp bead according to the performance information of the WW lamp bead to obtain a WW unit model; Substituting the WW unit model into the RGB light strip simulation model to obtain an RGBWW light strip simulation model, and repeatedly debugging the setting position of the WW unit model according to the relative position relationship between the WW unit model and each of the RGB unit models in the RGBWW light strip simulation model to obtain several simulated setting positions of the WW unit model, each of which constitutes an RGBWW light strip simulation model in an analytical form; The warm light effect simulation of the WW unit model is performed on the RGBWW lamp strip simulation models of various analysis forms respectively to obtain the warm light simulation effects corresponding to the various analysis forms. The warm light simulation effects of the WW lamp beads corresponding to the various analysis forms together constitute the warm light effect characteristics of the WW lamp beads.

4. The method for arranging lamp beads of an RGBWW lamp strip according to claim 1, characterized in that: The step of performing an analytical process on the display contribution feature according to the warm light effect feature to obtain a WW lamp bead setting plan for the WW lamp bead corresponding to the target warm light display effect includes: The display contribution feature is analyzed for target reproduction according to the warm light effect feature to obtain the installation distribution feature of the WW lamp beads; wherein the installation distribution feature is used to describe the number requirement and the setting position requirement of the WW lamp beads; Obtain the lamp bead mounting hole distribution information of the RGB lamp strip, and analyze the mounting hole connection mode of the WW lamp bead installation distribution characteristics according to the lamp bead mounting hole distribution information, so as to obtain the mounting hole connection mode of each WW lamp bead corresponding to the installation distribution characteristics; wherein the mounting hole connection mode is used to describe how to fix the connection wire of the WW lamp bead with the lamp bead mounting hole to realize the electrical connection between the WW lamp bead and the RGB lamp strip; The fixing method of the designated position of the installation distribution feature is analyzed according to the fixing structure information of the WW lamp bead, so as to obtain the fixing method of the designated position of each WW lamp bead corresponding to the installation distribution feature; wherein the fixing method of the designated position is used to describe how to fix the WW lamp bead to the designated position corresponding to the installation distribution feature on the RGB light strip through the fixing structure of the WW lamp bead; The mounting hole connection method and the designated position fixing method together constitute the WW lamp bead setting plan.

5. The lamp bead arrangement method of the RGBWW lamp strip according to claim 1, characterized in that: The steps of performing a multi-dimensional value assessment on the WW lamp bead setting plan, and performing parallel analysis on the WW lamp bead setting plan based on the assessment results to obtain several other forms of WW lamp bead setting plans include: Conducting a value assessment of the number of lamp beads required for the WW lamp bead setting plan to obtain a material cost value index; Conducting an execution complexity evaluation of the WW lamp bead installation form on the WW lamp bead setting plan to obtain an installation cost value index; wherein the material cost value index and the installation cost value index are both part of the evaluation result; The material cost value index and the installation cost value index are judged according to the preset standard. When the judgment result shows that it exceeds the preset standard, the number of WW lamp bead setting plans is reduced, and the setting position of the WW lamp bead setting plan is corrected based on the standard after the number reduction to obtain other forms of WW lamp bead setting plans.

6. The lamp bead arrangement method of the RGBWW lamp strip according to claim 1, characterized in that: The steps of integrating and analyzing the various WW lamp bead setting plans to obtain a lamp bead arrangement guidance plan for the user to select and generating a corresponding arrangement execution plan according to the selection result include: Arrange the various WW lamp bead setting plans to obtain a plan sequence, and generate a plan evaluation sequence for the plan sequence according to the value evaluation results corresponding to the various WW lamp bead setting plans; The plan sequence and the plan evaluation sequence are combined in sequence, and a corresponding interactive port is generated based on the plan sequence to obtain a lamp bead arrangement guidance scheme; The user's selection instruction is received through the interactive port of the lamp bead arrangement guidance scheme, and the corresponding WW lamp bead setting plan is selected from the lamp bead arrangement guidance scheme according to the selection instruction, and the setting steps of the selected WW lamp bead setting plan are analyzed and displayed in detail to obtain the arrangement execution plan.

7. A lamp bead arrangement product of an RGBWW lamp strip, characterized in that: include: RGB light strip, several RGB lamp beads and several WW lamp beads; The RGB light strip is provided with a plurality of RGB mounting holes, and each of the RGB lamp beads is respectively arranged on the RGB light strip through the RGB mounting holes; Each of the WW lamp beads has a connecting structure and a fixing structure, each of the WW lamp beads is electrically connected to the RGB mounting hole through the connecting structure, and each of the WW lamp beads is set at a specified position through the fixing structure, and the specified position is determined by the lamp bead arrangement method of the RGBWW lamp strip described in any one of claims 1-6.

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