Holographic imaging decoration simulation display system and method

Abstract

The invention relates to the technical field of building decoration design, in particular to a holographic imaging decoration simulation display system and method. The user interaction module provides multiple input mode supports and reduces the operation threshold, a user can drive the three-dimensional modeling module and the model building unit to quickly generate a model through simple instruction input, and the parameterization adjustment unit enables the user to flexibly adjust the layout and optimizes the modeling operation process; the three-dimensional image generation unit accurately converts a three-dimensional model into a holographic image format, the optical projection unit clearly projects an image, and the image correction unit and the image enhancement unit further optimize the image quality, improve the definition and the color rendition degree and enhance the detail display effect; the material database unit provides rich material information, the illumination simulation unit and the reflection simulation unit can accurately simulate reflection and refraction effects of materials under light, and the material attribute adjustment unit allows a user to customize material attributes, so that the decoration effect is more real.

Description

Technical Field

[0001] The present invention relates to the technical field of building decoration design, and in particular to a holographic imaging decoration simulation display system and method. Background Art

[0002] With the rapid development of science and technology, the decoration design industry is undergoing unprecedented changes. Traditional decoration design methods mainly rely on two-dimensional drawings and designers' verbal descriptions. This method makes it difficult for customers to intuitively feel the actual effect of the decoration, which often leads to a large deviation between the design results and customer expectations. In order to improve this situation, three-dimensional modeling and virtual reality technology have gradually been introduced into the field of decoration design. These technologies enable customers to preview the decoration effects in a virtual environment by constructing three-dimensional models, thereby improving the intuitiveness of the design and user experience. Customers can walk freely in the virtual space, observe the decoration details from different angles, and even interact with virtual furniture. This immersive experience greatly enhances the customer's perception and recognition of the decoration plan.

[0003] Existing technology patent CN105446069B discloses a holographic imaging full-decoration simulation display method and display system based on BIM. It uses BIM modeling software to establish a three-dimensional information model of the building and a parametric family of internal partition walls. By adjusting the parameters and positions of the partition wall families, the internal unit types are designed to achieve the variability of the internal unit types and the personalized design of the decoration scheme. The effects of the residents' choices and modifications are projected into three-dimensional real images through holographic imaging technology. Users can intuitively experience the differences and feelings of the decoration schemes. Through roaming animation, users can experience every detail of the decoration scheme in real life in the projected three-dimensional animation scene. They can intuitively determine the decoration scheme without visiting the model house. The three-dimensional scheme diagram and animated images are used for auxiliary acceptance, helping users who do not understand decoration to compare and accept the results to ensure that the decoration meets their design requirements.

[0004] However, in the existing technology, the operation process of the system during the modeling process is relatively complicated, and users are required to have a certain foundation in BIM software operation. Secondly, the holographic imaging system still needs to be improved in terms of image clarity and color reproduction, especially in terms of detail display, which often fails to meet customer expectations. In addition, the existing technology is also relatively limited in its simulation of decoration materials, and it is difficult to truly reflect the reflection and refraction effects of different materials under light, thus affecting the authenticity of the decoration effect. Summary of the Invention

[0005] The purpose of the present invention is to provide a holographic imaging decoration simulation display system and method, aiming to solve the technical problems in the existing technology that the operation process of the system during the modeling process is relatively complex and requires users to have a certain foundation in BIM software operation. Secondly, the holographic imaging system still needs to be improved in terms of image clarity and color reproduction, especially in terms of detail display, which often fails to meet customer expectations. In addition, the existing technology is also relatively limited in its simulation of decoration materials, making it difficult to truly reflect the reflection and refraction effects of different materials under light, thereby affecting the authenticity of the decoration effect.

[0006] To achieve the above-mentioned objectives, the present invention adopts a holographic imaging decoration simulation display system, which includes a user interaction module, a three-dimensional modeling module, a holographic imaging module, a material simulation module, an interactive experience module, a construction guidance module and an acceptance assistance module. The user interaction module includes an input instruction receiving unit and a multiple input mode support unit. The three-dimensional modeling module includes a model construction unit, a parameter adjustment unit and a model optimization unit. The holographic imaging module includes a three-dimensional image generation unit, an optical projection unit, an image correction unit and an image enhancement unit. The material simulation module includes a material database unit, a lighting simulation unit, a reflection simulation unit and a material property adjustment unit. The user interaction module is connected to the three-dimensional modeling module, the three-dimensional modeling module is connected to the holographic imaging module, the holographic imaging module is connected to the material simulation module, the material simulation module is connected to the interactive experience module, the interactive experience module is connected to the construction guidance module, and the construction guidance module is connected to the acceptance assistance module.

[0007] The input instruction receiving unit and the multiple input mode supporting unit receive user instructions for apartment type adjustment and decoration material selection, and transmit these instructions to the three-dimensional modeling module;

[0008] The model construction unit constructs a three-dimensional information model according to the instructions, the parameter adjustment unit allows the user to flexibly adjust the model layout, and the model optimization unit optimizes the model details and transmits the optimized model to the holographic imaging module;

[0009] The three-dimensional image generation unit converts the three-dimensional model into a holographic image format, the optical projection unit projects a three-dimensional stereoscopic image, and the image correction unit and the image enhancement unit ensure image quality and transmit a high-quality holographic image to the material simulation module;

[0010] The material database unit provides rich material information, the illumination simulation unit and the reflection simulation unit simulate the effect of the material under light, and the material property adjustment unit allows the user to customize the material properties and pass the simulation results to the interactive experience module;

[0011] The interactive experience module provides users with an immersive interactive experience, allowing them to freely explore, operate, and adjust the virtual scene, and pass the finalized renovation plan to the construction guidance module;

[0012] The construction guidance module generates construction drawings and virtual construction videos according to the decoration plan to guide the construction workers to carry out the construction. Finally, the construction results are assisted in acceptance by the acceptance auxiliary module.

[0013] The interactive experience module includes a scene roaming unit, a virtual operation unit, a multi-person collaborative interaction unit, and an interactive feedback unit, and the scene roaming unit, the virtual operation unit, the multi-person collaborative interaction unit, and the interactive feedback unit are all connected to the construction guidance module;

[0014] The scene roaming unit allows the user to freely move and observe the three-dimensional decoration scene generated by holographic imaging, and experience the decoration effect from different angles and perspectives;

[0015] The virtual operation unit supports users to move, rotate, change the material or color of furniture, decorations and other elements in the scene through gestures, voice commands or other interactive devices;

[0016] The multi-user collaborative interaction unit allows multiple users to enter the same virtual scene at the same time to conduct collaborative design and communication, and users can discuss decoration plans together;

[0017] The interactive feedback unit can respond to the user's operations and selections immediately, adjust the elements in the scene, and display the adjusted effects in real time.

[0018] The construction guidance module includes a construction plan formulation unit, a technical disclosure unit, a construction process monitoring unit and a construction feedback unit, and the construction plan formulation unit, the technical disclosure unit, the construction process monitoring unit and the construction feedback unit are all connected to the acceptance auxiliary module;

[0019] The construction plan formulation unit is responsible for formulating a construction plan including construction sequence, time arrangement and personnel allocation according to the decoration plan;

[0020] The technical briefing unit conveys the technical requirements and details of the decoration plan to the construction personnel;

[0021] The construction process monitoring unit monitors the construction process in real time;

[0022] The construction feedback unit is responsible for collecting feedback during the construction process and making timely adjustments to the construction plan and technical requirements.

[0023] The acceptance auxiliary module includes an acceptance standard setting unit, an acceptance process recording unit, an acceptance feedback unit and an acceptance report generating unit;

[0024] The acceptance criteria setting unit is responsible for formulating detailed acceptance criteria based on the renovation plan and relevant specifications;

[0025] The acceptance process recording unit records the acceptance data of the wall surface flatness and the laying of water and electricity lines in real time during the acceptance process;

[0026] The acceptance feedback unit promptly collects problems found during acceptance and tracks the rectification of the problems;

[0027] The acceptance report generating unit generates a detailed acceptance report based on the acceptance process records and problem rectification status, summarizing the acceptance results.

[0028] The holographic imaging decoration simulation display system further includes a transmission module, which includes a data receiving unit, a data decoding unit and a data sending unit, and the data receiving unit, the data decoding unit and the data sending unit are all connected to the acceptance auxiliary module;

[0029] The data receiving unit is used to receive acceptance signals from other acceptance auxiliary modules;

[0030] The data decoding unit is used to decode the acceptance signal into a format recognizable by the system;

[0031] The data sending unit is used to send the decoded signal to the superior and the user's mobile device.

[0032] The holographic imaging decoration simulation display system further includes a data storage module, and the user interaction module, the three-dimensional modeling module, the holographic imaging module, the material simulation module, the interactive experience module, and the construction guidance module are all connected to the data storage module, and the data storage module includes a data backup unit, a data retrieval unit, and a data security unit;

[0033] The data backup unit is used to back up and store the instructions selected by each user, the optimized model, the high-quality holographic image, the simulation results, the decoration plan, the construction drawings and the virtual construction video;

[0034] The data retrieval unit is used by subsequent staff to retrieve previously stored designated data;

[0035] The data security unit is responsible for ensuring the security of stored data.

[0036] The present invention also provides a holographic imaging decoration simulation display method, which is applied to the above-mentioned holographic imaging decoration simulation display system, comprising the following steps:

[0037] The user interaction module receives user instructions regarding apartment layout adjustment and decoration material selection, and transmits them to the 3D modeling module; the 3D modeling module constructs a 3D model based on the instructions, and the user can adjust the layout as needed, and then optimizes the model and sends it to the holographic imaging module;

[0038] The holographic imaging module converts the optimized 3D model into a holographic image and projects it. After correction and enhancement, it is passed to the material simulation module. The material simulation module uses the material database to simulate the effect of the material under light, allowing users to customize material properties. After completion, it is ready to be passed to the interactive experience module.

[0039] Users can freely explore, operate and adjust the virtual scene in the interactive experience module, and can roam the scene, perform virtual operations, and collaborate with multiple people. The system will provide real-time feedback on the adjustment effect. After the user determines the final decoration plan, it will be passed to the construction guidance module.

[0040] The construction guidance module formulates a construction plan based on the decoration plan, conducts technical briefings, monitors the construction process in real time, and adjusts the plan and technical requirements based on feedback. At the same time, the acceptance auxiliary module formulates detailed acceptance standards;

[0041] The transmission module receives and decodes the external acceptance signal and sends it to the superior and the user's mobile device; the acceptance auxiliary module records data during acceptance, collects problems and tracks rectification;

[0042] The acceptance report generation unit generates a detailed report based on the acceptance records and rectification status, summarizing the acceptance results; the data storage module backs up and stores user instructions, models, images, plans and other data.

[0043] The present invention provides a holographic imaging decoration simulation display system and method. In terms of modeling operations, the user interaction module provides support for multiple input methods, lowering the operation threshold. Users do not need to have a basic understanding of complex BIM software operations and can drive the three-dimensional modeling module through simple command input. The model construction unit quickly generates a model, and the parameterized adjustment unit allows users to flexibly adjust the layout, thereby optimizing the modeling operation process. For holographic imaging issues, the three-dimensional image generation unit in the holographic imaging module accurately converts the three-dimensional model into a holographic image format, the optical projection unit clearly projects the image, and the image correction unit and the image enhancement unit further optimize the image quality, improve clarity and color reproduction, and enhance the detail display effect. In the simulation of decoration materials, the material database unit of the material simulation module provides rich material information, the illumination simulation unit and the reflection simulation unit can accurately simulate the reflection and refraction effects of the material under light, and the material property adjustment unit allows users to customize material properties to make the decoration effect more realistic. BRIEF DESCRIPTION OF THE DRAWINGS

[0044] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0045] Figure 1 It is a schematic diagram of the principle of the holographic imaging decoration simulation display system of the present invention.

[0046] Figure 2 This is a flow chart of the steps of a holographic imaging decoration simulation display method of the present invention.

[0047] 1-User interaction module, 2-3D modeling module, 3-Holographic imaging module, 4-Material simulation module, 5-Interactive experience module, 6-Construction guidance module, 7-Acceptance auxiliary module, 8-Input command receiving unit, 9-Multiple input method support unit, 10-Model construction unit, 11-Parameter adjustment unit, 12-Model optimization unit, 13-3D image generation unit, 14-Optical projection unit, 15-Image correction unit, 16-Image enhancement unit, 17-Material database unit, 18-Lighting simulation unit, 19-Reflection simulation unit, 20-Material property adjustment unit, 21-Scene roaming unit, 22-Virtual operation unit, 23-Multi-person collaborative interaction unit, 24-Interactive feedback unit, 25-Construction plan formulation unit, 26-Technical briefing unit, 27-Construction process monitoring unit, 28-Construction feedback unit, 29-Acceptance standard setting unit, 30-Acceptance process recording unit, 31-Acceptance feedback unit, 32-Acceptance report generation unit, 33-Transmission module, 34-Data receiving unit, 35-Data decoding unit, 36-Data sending unit, 37-Data storage module, 38-Data backup unit, 39-Data retrieval unit, 40-Data security unit, 41-AI style recommendation unit, 42-Physical environment simulation unit, 43-Acceptance auxiliary unit. DETAILED DESCRIPTION

[0048] The following describes embodiments of the present invention in detail, examples of which are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, and are not to be construed as limiting the present invention.

[0049] See also Figure 1The present invention provides a holographic imaging decoration simulation display system, including a user interaction module 1, a three-dimensional modeling module 2, a holographic imaging module 3, a material simulation module 4, an interactive experience module 5, a construction guidance module 6 and an acceptance auxiliary module 7. The user interaction module 1 includes an input instruction receiving unit 8 and a multiple input mode support unit 9. The three-dimensional modeling module 2 includes a model construction unit 10, a parameter adjustment unit 11 and a model optimization unit 12. The holographic imaging module 3 includes a three-dimensional image generation unit 13, an optical projection unit 14, an image correction unit 15 and an image enhancement unit 16. The material simulation module 4 includes a material database unit 17, a lighting simulation unit 18, a reflection simulation unit 19 and a material property adjustment unit 20. The user interaction module 1 is connected to the three-dimensional modeling module 2, the three-dimensional modeling module 2 is connected to the holographic imaging module 3, the holographic imaging module 3 is connected to the material simulation module 4, the material simulation module 4 is connected to the interactive experience module 5, the interactive experience module 5 is connected to the construction guidance module 6, and the construction guidance module 6 is connected to the acceptance auxiliary module 7.

[0050] The input instruction receiving unit 8 and the multiple input mode supporting unit 9 receive the user's instructions for apartment type adjustment and decoration material selection, and pass these instructions to the three-dimensional modeling module 2;

[0051] The model construction unit 10 constructs a three-dimensional information model according to the instructions, the parameter adjustment unit 11 allows the user to flexibly adjust the model layout, and the model optimization unit 12 optimizes the model details and transmits the optimized model to the holographic imaging module 3;

[0052] The three-dimensional image generation unit 13 converts the three-dimensional model into a holographic image format, the optical projection unit 14 projects a three-dimensional stereoscopic image, and the image correction unit 15 and the image enhancement unit 16 ensure image quality and transmit a high-quality holographic image to the material simulation module 4;

[0053] The material database unit 17 provides rich material information, the illumination simulation unit 18 and the reflection simulation unit 19 simulate the effect of the material under light, and the material property adjustment unit 20 allows the user to customize the material properties and pass the simulation results to the interactive experience module 5;

[0054] The interactive experience module 5 provides users with an immersive interactive experience. Users can freely explore, operate and adjust the virtual scene and pass the finalized decoration plan to the construction guidance module 6;

[0055] The construction guidance module 6 generates construction drawings and virtual construction videos according to the decoration plan to guide the construction workers to carry out the construction. Finally, the construction results are assisted in acceptance by the acceptance auxiliary module 7.

[0056] In this embodiment, the user interaction module 1 receives user instructions for apartment adjustment and decoration material selection with the help of the input instruction receiving and multiple input method support unit 9, and passes them to the three-dimensional modeling module 2; the model construction unit 10 constructs the model according to the instructions, the parameterized adjustment unit 11 realizes flexible layout adjustment, and the model optimization unit 12 optimizes the details and then transmits it to the holographic imaging module 3; the three-dimensional image generation unit 13 converts the model into a holographic image format, the optical projection unit 14 projects the stereoscopic image, and the image correction and enhancement unit ensures the quality and then transmits it to the material simulation module 4; the material database unit 17 provides material information, the lighting and reflection simulation unit 19 simulates the light effect, the material property adjustment unit 20 supports customization, and the simulation results are transmitted to the interactive experience module 5, laying the foundation for the coordinated operation of subsequent modules.

[0057] Furthermore, the interactive experience module 5 includes a scene roaming unit 21, a virtual operation unit 22, a multi-person collaborative interaction unit 23, and an interactive feedback unit 24, and the scene roaming unit 21, the virtual operation unit 22, the multi-person collaborative interaction unit 23, and the interactive feedback unit 24 are all connected to the construction guidance module 6;

[0058] The scene roaming unit 21 allows the user to freely move and observe the three-dimensional decoration scene generated by holographic imaging, and experience the decoration effect from different angles and perspectives;

[0059] The virtual operation unit 22 supports the user to move, rotate, change the material or color of elements such as furniture and decorations in the scene through gestures, voice commands or other interactive devices;

[0060] The multi-user collaborative interaction unit 23 allows multiple users to enter the same virtual scene at the same time to conduct collaborative design and communication, and users can discuss decoration plans together;

[0061] The interactive feedback unit 24 can respond to the user's operations and selections immediately, adjust the elements in the scene, and display the adjusted effects in real time.

[0062] In this embodiment, the scene roaming unit 21 in the interactive experience module 5 allows users to move freely and observe the three-dimensional decoration scene. The virtual operation unit 22 supports the operation of scene elements through gestures, voice, etc. The multi-person collaborative interaction unit 23 allows multiple users to collaborate on design and communicate. The interactive feedback unit 24 responds to user operations in real time and displays the adjustment effects, and is connected to the construction guidance module 6 to pass on the decoration plan finally determined by the user, thereby enhancing user participation and experience.

[0063] Furthermore, the construction guidance module 6 includes a construction plan formulation unit 25, a technical disclosure unit 26, a construction process monitoring unit 27 and a construction feedback unit 28, and the construction plan formulation unit 25, the technical disclosure unit 26, the construction process monitoring unit 27 and the construction feedback unit 28 are all connected to the acceptance auxiliary module 7;

[0064] The construction plan making unit 25 is responsible for making a construction plan including construction sequence, time arrangement and personnel allocation according to the decoration plan;

[0065] The technical briefing unit 26 conveys the technical requirements and details of the decoration plan to the construction personnel;

[0066] The construction process monitoring unit 27 monitors the construction process in real time;

[0067] The construction feedback unit 28 is responsible for collecting feedback during the construction process and making timely adjustments to the construction plan and technical requirements.

[0068] In this embodiment, the construction plan formulation unit 25 of the construction guidance module 6 formulates a construction plan according to the decoration plan, the technical briefing unit 26 conveys technical requirements and details to the construction personnel, the construction process monitoring unit 27 monitors the construction in real time, and the construction feedback unit 28 collects feedback and adjusts the plan and technical requirements to ensure that the construction proceeds as planned and meets the quality requirements.

[0069] Furthermore, the acceptance auxiliary module 7 includes an acceptance standard setting unit 29, an acceptance process recording unit 30, an acceptance feedback unit 31 and an acceptance report generating unit 32;

[0070] The acceptance criteria setting unit 29 is responsible for formulating detailed acceptance criteria based on the decoration plan and relevant specifications;

[0071] The acceptance process recording unit 30 records the acceptance data of the wall surface flatness and the laying of water and electricity lines in real time during the acceptance process;

[0072] The acceptance feedback unit 31 promptly collects problems found during acceptance and tracks the rectification of the problems;

[0073] The acceptance report generating unit 32 generates a detailed acceptance report based on the acceptance process records and problem rectification status, summarizing the acceptance results.

[0074] In this embodiment, the acceptance standard setting unit 29 of the acceptance auxiliary module 7 formulates acceptance standards based on the decoration plan and specifications, the acceptance process recording unit 30 records the acceptance data in real time, the acceptance feedback unit 31 collects problems and tracks rectification, and the acceptance report generation unit 32 generates a detailed report summarizing the acceptance results, providing strict control and summary feedback for the decoration quality.

[0075] Furthermore, the holographic imaging decoration simulation display system further includes a transmission module 33, which includes a data receiving unit 34, a data decoding unit 35 and a data sending unit 36, and the data receiving unit 34, the data decoding unit 35 and the data sending unit 36 ​​are all connected to the acceptance auxiliary module 7;

[0076] The data receiving unit 34 is used to receive the acceptance signal from other acceptance auxiliary modules 7;

[0077] The data decoding unit 35 is used to decode the acceptance signal into a format recognizable by the system;

[0078] The data sending unit 36 ​​is used to send the decoded signal to the superior and the user's mobile device.

[0079] In this embodiment, the data receiving unit 34 of the transmission module 33 receives the acceptance signal of other acceptance auxiliary modules 7, the data decoding unit 35 decodes it into a system-recognizable format, and the data sending unit 36 ​​sends the decoded signal to the superior and user mobile device to achieve timely transmission and sharing of acceptance information.

[0080] Furthermore, the holographic imaging decoration simulation display system also includes a data storage module 37. The user interaction module 1, the 3D modeling module 2, the holographic imaging module 3, the material simulation module 4, the interactive experience module 5, and the construction guidance module 6 are all connected to the data storage module 37. The data storage module 37 includes a data backup unit 38, a data retrieval unit 39, and a data security unit 40.

[0081] The data backup unit 38 is used to back up and store the instructions selected by each user, the optimized model, the high-quality holographic image, the simulation results, the decoration plan, the construction drawings and the virtual construction video;

[0082] The data retrieval unit 39 is used for subsequent staff to retrieve the previously stored specified data;

[0083] The data security unit 40 is responsible for ensuring the security of stored data.

[0084] In this embodiment, the data backup unit 38 of the data storage module 37 backs up and stores data such as user instructions, models, images, simulation results, plans, drawings and videos. The data retrieval unit 39 allows staff to retrieve and retrieve specified data, and the data security unit 40 ensures data security.

[0085] Furthermore, the holographic imaging decoration simulation display system also includes an AI style recommendation unit 41, and the AI ​​style recommendation unit 41 is connected to the interactive experience module 5.

[0086] The AI ​​style recommendation unit 41 is used to automatically generate a combination of decoration schemes according to user preferences.

[0087] In this embodiment, the AI ​​style recommendation unit 41 is used to automatically generate a combination of decoration schemes according to user preferences.

[0088] Furthermore, the holographic imaging decoration simulation display system further includes a physical environment simulation unit 42, and the physical environment simulation unit 42 is connected to the interactive experience module 5;

[0089] The physical environment simulation unit 42 is used to integrate sensor data to dynamically adjust the environmental effect of the holographic image.

[0090] In this embodiment, the physical environment simulation unit 42 is used to integrate sensor data to dynamically adjust the environmental effect of the holographic image.

[0091] Furthermore, the holographic imaging decoration simulation display system further includes an acceptance auxiliary unit 43 , and the acceptance auxiliary unit 43 is connected to the acceptance auxiliary module 7 .

[0092] The acceptance auxiliary unit 43 is used to compare the design plan with the construction results using computer vision technology, automatically mark the deviation areas, generate a visual acceptance report and push rectification suggestions.

[0093] In this embodiment, the acceptance auxiliary unit 43 is used to compare the design plan with the construction results using computer vision technology, automatically mark the deviation areas, generate a visual acceptance report and push rectification suggestions.

[0094] Based on the present invention, please refer to Figure 2 The present invention also provides a holographic imaging decoration simulation display method, which is applied to the above-mentioned holographic imaging decoration simulation display system, comprising the following steps:

[0095] S1: The user interaction module 1 receives user instructions regarding apartment layout adjustment and decoration material selection, and transmits them to the 3D modeling module 2; the 3D modeling module 2 constructs a 3D model based on the instructions, and the user can adjust the layout as needed. The optimized model is then sent to the holographic imaging module 3;

[0096] S2: The holographic imaging module 3 converts the optimized 3D model into a holographic image and projects it. After correction and enhancement, it is passed to the material simulation module 4. The material simulation module 4 uses the material database to simulate the effect of the material under light, allowing the user to customize the material properties. After completion, it is ready to be passed to the interactive experience module 5.

[0097] S3: The user freely explores and adjusts the virtual scene in the interactive experience module 5, and can perform scene roaming, virtual operation, and multi-person collaboration. The system immediately provides feedback on the adjustment effect. After the user determines the final decoration plan, it is passed to the construction guidance module 6;

[0098] S4: The construction guidance module 6 formulates a construction plan according to the decoration plan, conducts technical explanations, monitors the construction process in real time, and adjusts the plan and technical requirements according to feedback. At the same time, the acceptance auxiliary module 7 formulates detailed acceptance standards;

[0099] S5: The transmission module 33 receives and decodes the external acceptance signal and sends it to the superior and the user's mobile device; the acceptance auxiliary module 7 records data during acceptance, collects problems and tracks rectification;

[0100] S6: The acceptance report generation unit 32 generates a detailed report based on the acceptance record and rectification status, summarizing the acceptance results; the data storage module 37 backs up and stores user instructions, models, images, plans and other data.

[0101] The above disclosure is only a preferred embodiment of the present invention, and certainly cannot be used to limit the scope of the rights of the present invention. Ordinary technicians in this field can understand that all or part of the processes of the above embodiment and equivalent changes made in accordance with the claims of the present invention are still within the scope of the invention.

Claims

1. A holographic imaging decoration simulation display system, characterized in that: It includes a user interaction module, a three-dimensional modeling module, a holographic imaging module, a material simulation module, an interactive experience module, a construction guidance module and an acceptance assistance module. The user interaction module includes an input instruction receiving unit and a multiple input mode support unit. The three-dimensional modeling module includes a model construction unit, a parameter adjustment unit and a model optimization unit. The holographic imaging module includes a three-dimensional image generation unit, an optical projection unit, an image correction unit and an image enhancement unit. The material simulation module includes a material database unit, a lighting simulation unit, a reflection simulation unit and a material property adjustment unit. The user interaction module is connected to the three-dimensional modeling module, the three-dimensional modeling module is connected to the holographic imaging module, the holographic imaging module is connected to the material simulation module, the material simulation module is connected to the interactive experience module, the interactive experience module is connected to the construction guidance module, and the construction guidance module is connected to the acceptance assistance module. The input instruction receiving unit and the multiple input mode supporting unit receive user instructions for apartment type adjustment and decoration material selection, and transmit these instructions to the three-dimensional modeling module; The model construction unit constructs a three-dimensional information model according to the instructions, the parameter adjustment unit allows the user to flexibly adjust the model layout, and the model optimization unit optimizes the model details and transmits the optimized model to the holographic imaging module; The three-dimensional image generation unit converts the three-dimensional model into a holographic image format, the optical projection unit projects a three-dimensional stereoscopic image, and the image correction unit and the image enhancement unit ensure image quality and transmit a high-quality holographic image to the material simulation module; The material database unit provides rich material information, the illumination simulation unit and the reflection simulation unit simulate the effect of the material under light, and the material property adjustment unit allows the user to customize the material properties and pass the simulation results to the interactive experience module; The interactive experience module provides users with an immersive interactive experience, allowing them to freely explore, operate, and adjust the virtual scene, and pass the finalized renovation plan to the construction guidance module; The construction guidance module generates construction drawings and virtual construction videos according to the decoration plan to guide the construction workers to carry out the construction. Finally, the construction results are assisted in acceptance by the acceptance auxiliary module.

2. The holographic imaging decoration simulation display system according to claim 1, characterized in that: The interactive experience module includes a scene roaming unit, a virtual operation unit, a multi-person collaborative interaction unit and an interactive feedback unit, and the scene roaming unit, the virtual operation unit, the multi-person collaborative interaction unit and the interactive feedback unit are all connected to the construction guidance module; The scene roaming unit allows the user to freely move and observe the three-dimensional decoration scene generated by holographic imaging, and experience the decoration effect from different angles and perspectives; The virtual operation unit supports users to move, rotate, change the material or color of furniture, decorations and other elements in the scene through gestures, voice commands or other interactive devices; The multi-user collaborative interaction unit allows multiple users to enter the same virtual scene at the same time to conduct collaborative design and communication, and users can discuss decoration plans together; The interactive feedback unit can respond to the user's operations and selections immediately, adjust the elements in the scene, and display the adjusted effects in real time.

3. The holographic imaging decoration simulation display system according to claim 2, characterized in that: The construction guidance module includes a construction plan formulation unit, a technical disclosure unit, a construction process monitoring unit and a construction feedback unit, and the construction plan formulation unit, the technical disclosure unit, the construction process monitoring unit and the construction feedback unit are all connected to the acceptance auxiliary module; The construction plan formulation unit is responsible for formulating a construction plan including construction sequence, time arrangement and personnel allocation according to the decoration plan; The technical briefing unit conveys the technical requirements and details of the decoration plan to the construction personnel; The construction process monitoring unit monitors the construction process in real time; The construction feedback unit is responsible for collecting feedback during the construction process and making timely adjustments to the construction plan and technical requirements.

4. The holographic imaging decoration simulation display system according to claim 3, characterized in that: The acceptance auxiliary module includes an acceptance standard setting unit, an acceptance process recording unit, an acceptance feedback unit and an acceptance report generating unit; The acceptance criteria setting unit is responsible for formulating detailed acceptance criteria based on the renovation plan and relevant specifications; The acceptance process recording unit records the acceptance data of the wall surface flatness and the laying of water and electricity lines in real time during the acceptance process; The acceptance feedback unit promptly collects problems found during acceptance and tracks the rectification of the problems; The acceptance report generating unit generates a detailed acceptance report based on the acceptance process records and problem rectification status, summarizing the acceptance results.

5. The holographic imaging decoration simulation display system according to claim 4, characterized in that: The holographic imaging decoration simulation display system further includes a transmission module, which includes a data receiving unit, a data decoding unit and a data sending unit, and the data receiving unit, the data decoding unit and the data sending unit are all connected to the acceptance auxiliary module; The data receiving unit is used to receive acceptance signals from other acceptance auxiliary modules; The data decoding unit is used to decode the acceptance signal into a format recognizable by the system; The data sending unit is used to send the decoded signal to the superior and the user's mobile device.

6. The holographic imaging decoration simulation display system according to claim 5, characterized in that: The holographic imaging decoration simulation display system also includes a data storage module, and the user interaction module, the three-dimensional modeling module, the holographic imaging module, the material simulation module, the interactive experience module and the construction guidance module are all connected to the data storage module, and the data storage module includes a data backup unit, a data retrieval unit and a data security unit; The data backup unit is used to back up and store the instructions selected by each user, the optimized model, the high-quality holographic image, the simulation results, the decoration plan, the construction drawings and the virtual construction video; The data retrieval unit is used by subsequent staff to retrieve previously stored designated data; The data security unit is responsible for ensuring the security of stored data.

7. A holographic imaging decoration simulation display method, applied to the holographic imaging decoration simulation display system according to claim 6, characterized in that: The steps include: The user interaction module receives user instructions regarding apartment layout adjustment and decoration material selection, and transmits them to the 3D modeling module; the 3D modeling module constructs a 3D model based on the instructions, and the user can adjust the layout as needed, and then optimizes the model and sends it to the holographic imaging module; The holographic imaging module converts the optimized 3D model into a holographic image and projects it. After correction and enhancement, it is passed to the material simulation module. The material simulation module uses the material database to simulate the effect of the material under light, allowing users to customize material properties. After completion, it is ready to be passed to the interactive experience module. Users can freely explore, operate and adjust the virtual scene in the interactive experience module, and can roam the scene, perform virtual operations, and collaborate with multiple people. The system will provide real-time feedback on the adjustment effect. After the user determines the final decoration plan, it will be passed to the construction guidance module. The construction guidance module formulates a construction plan based on the decoration plan, conducts technical briefings, monitors the construction process in real time, and adjusts the plan and technical requirements based on feedback. At the same time, the acceptance auxiliary module formulates detailed acceptance standards; The transmission module receives and decodes the external acceptance signal and sends it to the superior and the user's mobile device; the acceptance auxiliary module records data during acceptance, collects problems and tracks rectification; The acceptance report generation unit generates a detailed report based on the acceptance records and rectification status, summarizing the acceptance results; the data storage module backs up and stores user instructions, models, images, plans and other data.

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