Customized nose and eyebrow arch integrated light blood mixing three-dimensional light face shaping system

Abstract

The invention relates to the crossing field of medical cosmetology and digital plastic technologies, and discloses a customized nose and eyebrow arch integrated light blood mixing three-dimensional light face shaping system. Comprising a multi-modal data acquisition module, a nose-eyebrow arch joint modeling engine, a light blood mixing parameter database, a personalized implant manufacturing system, an intelligent auxiliary decision-making platform, a postoperative effect evaluation module and an intelligent tracking maintenance system, a multi-modal data acquisition module, a nose-eyebrow arch joint modeling engine, a light blood mixing parameter database, a personalized implant manufacturing system, an intelligent auxiliary decision-making platform, a postoperative effect evaluation module and an intelligent tracking maintenance system are integrated; the full-chain customized service from data acquisition, modeling design and implant manufacturing to postoperative effect evaluation and tracking maintenance is realized, gradient transition processing can be carried out aiming at the blood mixing characteristics, and the problem of the linkage effect of facial expression muscle groups is solved.

Description

Technical Field

[0001] The present invention relates to the intersection of medical cosmetology and digital plastic surgery technology, and in particular to a customized nose-eyebrow-arch integrated light hybrid three-dimensional light face shaping system. Background Art

[0002] At the intersection of medical aesthetics and digital plastic surgery, the research background of the integrated three-dimensional naso-brow arch shaping system is primarily based on in-depth exploration of facial anatomical features and biomechanics. Traditional brow arch and nose plastic surgery often use separate surgeries or injections, which makes it difficult to achieve a natural and coordinated three-dimensional aesthetic effect. Postoperatively, problems such as prosthesis displacement and morphological mismatch are prone to occur. In recent years, the introduction of 3D digital photolithography technology has made it possible to customize prostheses based on individual patient bone data. For example, the 3D printed PEEK prosthesis technology proposed by Dr. Xue Zhiqiang can accurately match anatomical structures such as the frontal sinus and supraorbital rim, optimizing facial contour connection.

[0003] However, existing medical cosmetic and digital plastic surgery technologies still lack a systematic analysis of the dynamic biomechanical properties of the naso-brow complex, the impact of facial muscle traction on implant stability, a lack of gradient transition processing for mixed-race features, and ignoring the linkage effects of facial expression muscles.

[0004] To this end, we propose a customized nose-brow-arch integrated light hybrid three-dimensional light face shaping system. Summary of the Invention

[0005] The present invention mainly solves the technical problems existing in the above-mentioned prior art and provides a customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system.

[0006] In order to achieve the above-mentioned purpose, the present invention adopts the following technical scheme: a customized integrated nose-brow arch light hybrid three-dimensional light face shaping system, including a multimodal data acquisition module, a nose-brow arch joint modeling engine, a light hybrid parameter database, a personalized implant manufacturing system, an intelligent auxiliary decision-making platform, a postoperative effect evaluation module and an intelligent tracking and maintenance system. The multimodal data acquisition module includes a three-dimensional light field scanning unit, a CT bone structure reconstruction unit and a dynamic expression capture unit. The multimodal data acquisition module realizes high-precision facial three-dimensional data acquisition through the three-dimensional light field scanning unit, and can capture subtle facial contour features. The CT bone structure reconstruction unit further analyzes the bone structure of the nose-brow arch area to provide an accurate bone foundation for subsequent modeling. The dynamic expression capture unit captures subtle changes in facial expressions to ensure that the shaping effect is natural and vivid.

[0007] As a preferred, the nose and eyebrow arch joint modeling engine includes a facial feature recognition algorithm, a soft tissue simulation engine, and an aesthetic ratio analysis module. The facial feature recognition algorithm can automatically identify and extract key facial feature points. The soft tissue simulation engine simulates the shape of the facial soft tissue based on the collected data. The aesthetic ratio analysis module analyzes and optimizes the aesthetic ratio based on the facial feature points and the soft tissue simulation results, combined with the light mixed blood aesthetic standard, to ensure that the shaping effect not only meets individual characteristics, but also has the aesthetic sense of light mixed blood.

[0008] As a preferred, the light mixed blood parameter database includes a biological feature library, a light mixed blood index quantification system, and an AI aesthetic evaluation system. The biological feature library stores a large amount of facial biological feature data of different populations, providing rich references for the design of personalized implants. The light mixed blood index quantification system quantitatively analyzes each facial feature according to the light mixed blood aesthetic standard, providing support for precise control of shaping effects. The AI aesthetic evaluation system uses artificial intelligence technology to evaluate the aesthetic of the design scheme, ensuring that every detail achieves the best aesthetic effect.

[0009] As a preferred, the personalized implant manufacturing system includes a high-precision 3D printing unit, a material optimization selection module, and a micro-channel guide system. The high-precision 3D printing unit can accurately manufacture implants that meet individual facial features based on data generated by the modeling engine. The material optimization selection module selects the most suitable biological medical material according to the use site and functional requirements of the implant, ensuring the safety and effectiveness of the implant. The micro-channel guide system assists the doctor in accurately placing the implant into the predetermined position during the operation, achieving the best shaping effect.

[0010] As a preferred, the intelligent auxiliary decision-making platform includes a big data analysis unit, a machine learning unit, and an artificial intelligence unit, which can intelligently recommend the most suitable shaping scheme according to the patient's facial features, personal preferences, and aesthetic standards, providing decision support for doctors and improving the accuracy and efficiency of the operation.

[0011] As a preferred, the postoperative effect evaluation module includes a facial three-dimensional reconstruction unit, a postoperative effect simulation system, and a patient satisfaction survey system. The facial three-dimensional reconstruction unit can visually display the shaping effect by comparing the data before and after the operation, providing clear evaluation basis for doctors and patients. The postoperative effect simulation system uses advanced simulation technology to predict the facial shape after the operation, helping patients better understand the operation effect and make wise decisions. The patient satisfaction survey system collects feedback from patients, continuously optimizes the operation scheme and service process, and improves the overall service quality.

[0012] Preferably, the intelligent tracking and maintenance system includes an intelligent tracking module, a health management system and a remote consultation platform. The intelligent tracking module regularly collects the patient's facial data, monitors the status of the implant and changes in facial morphology, and ensures the long-lasting stability of the shaping effect. The health management system provides patients with personalized health guidance and suggestions based on the tracking data, promotes the health and beauty of facial skin, and the remote consultation platform uses Internet technology to achieve remote communication and consultation between doctors and patients, making it convenient for patients to understand their shaping effects at any time and obtain professional advice and help.

[0013] The present invention provides a customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system. It has the following beneficial effects:

[0014] 1. This is a customized integrated nose-brow arch light hybrid three-dimensional light face shaping system. By integrating a multimodal data acquisition module, a nose-brow arch joint modeling engine, a light hybrid parameter database, a personalized implant manufacturing system, an intelligent auxiliary decision-making platform, a postoperative effect evaluation module and an intelligent tracking and maintenance system, it realizes a full-chain customized service from data acquisition, modeling design, implant manufacturing to postoperative effect evaluation and tracking maintenance. It can perform gradient transition processing for mixed-race features and solve the problem of linkage effect of facial expression muscles.

[0015] 2. This customized integrated nose-brow arch light hybrid three-dimensional light face shaping system, by setting up a multimodal data acquisition module and a nose-brow arch joint modeling engine, can accurately capture and analyze the patient's facial features, and provide personalized data support for subsequent design and manufacturing. The multimodal data acquisition module not only includes high-precision three-dimensional light field scanning and CT bone structure reconstruction, but also incorporates dynamic expression capture technology to ensure the natural and vivid shaping effect. The nose-brow arch joint modeling engine combines the patient's facial features with the light hybrid aesthetic standards through facial feature recognition, soft tissue simulation and aesthetic proportion analysis to create a nose-brow arch shape that is both in line with personal characteristics and has the beauty of light hybrid.

[0016] 3. This customized integrated nose-brow arch light hybrid three-dimensional light face shaping system provides strong support for the design of personalized implants by setting up a light hybrid parameter database. The rich data of the light hybrid parameter database and the intelligent evaluation of the AI ​​aesthetic evaluation system provide strong support for the design of personalized implants. The high-precision 3D printing and material optimization selection of the personalized implant manufacturing system ensure the safety and effectiveness of the implant. The big data analysis and machine learning technology of the intelligent decision-making platform provide doctors with intelligent recommendations and decision-making support, improving the accuracy and efficiency of the operation.

[0017] 4. This customized, integrated nose-brow arch, light, hybrid, three-dimensional facial contouring system features a post-operative effect evaluation module. Its 3D facial reconstruction and simulation intuitively demonstrate the contouring results, helping patients make informed decisions. The intelligent tracking and maintenance system's intelligent tracking, health management, and remote consultation ensure long-term, stable contouring results, providing patients with convenient professional advice and assistance.

[0018] 5. This is a customized integrated nose-brow arch light hybrid three-dimensional light face shaping system. By setting up an intelligent tracking and maintenance system, the intelligent tracking and maintenance system can monitor the patient's recovery in real time, and make timely adjustments and optimizations as needed to ensure that the patient obtains the best shaping effect. In addition, the intelligent tracking and maintenance system can also provide patients with personalized health guidance and suggestions through the health management system, promote the health and beauty of facial skin, and further enhance patient satisfaction and trust. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a system module diagram of the present invention. DETAILED DESCRIPTION

[0020] 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 the embodiments or the description of the prior art. Obviously, the drawings described below are merely illustrative, and those skilled in the art can, without inventive effort, derive other implementation drawings based on the provided drawings.

[0021] The structures, proportions, sizes, etc. illustrated in this specification are intended only to complement the contents disclosed herein and to facilitate understanding and reading by persons familiar with the art. They are not intended to limit the conditions under which the present invention may be implemented and therefore have no substantive technical significance. Any structural modifications, changes in proportions, or adjustments in sizes, without affecting the efficacy and objectives of the present invention, shall still fall within the scope of the technical contents disclosed herein.

[0022] It should be noted that similar reference numerals and letters denote similar items in the following drawings, and therefore, once an item is defined in one drawing, it does not need to be further defined or explained in subsequent drawings.

[0023] In the description of the embodiments of the present invention, it should be noted that the terms "center," "upper," "lower," "inner," "outer," and "side" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, or the orientations or positional relationships in which the inventive product is typically placed when in use. These terms are intended solely to facilitate the description of the present invention and to simplify the description, and are not intended to indicate or imply that the devices or components referred to must have a specific orientation, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limitations on the present invention. Furthermore, the terms "first," "second," and the like are used solely to distinguish descriptions and should not be construed as indicating or implying relative importance.

[0024] In the description of the embodiments of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "disposed," "installed," "connected," and "connected" should be understood in a broad sense. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium; and they can refer to internal connections between two components. Those skilled in the art will understand the specific meanings of the above terms in the embodiments of the present invention according to specific circumstances.

[0025] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0026] Example 1: A customized nose-brow arch integrated light mixed blood three-dimensional light face shaping system, such as Figure 1As shown, the system includes a multimodal data acquisition module, a joint naso-brow arch modeling engine, a light-hybrid parameter database, a personalized implant manufacturing system, an intelligent decision-making platform, a postoperative effect evaluation module, and an intelligent tracking and maintenance system. The multimodal data acquisition module includes a 3D light field scanning unit, a CT bone structure reconstruction unit, and a dynamic expression capture unit. The multimodal data acquisition module uses the 3D light field scanning unit to achieve high-precision facial 3D data acquisition, capable of capturing subtle facial contour features. The CT bone structure reconstruction unit further analyzes the bone structure of the naso-brow arch region, providing an accurate bony foundation for subsequent modeling. The dynamic expression capture unit captures subtle changes in facial expression to ensure a natural and vivid modeling effect. The joint naso-brow arch modeling engine includes a facial feature recognition algorithm, a soft tissue simulation engine, and an aesthetic proportion analysis module. The facial feature recognition algorithm automatically identifies and extracts key facial feature points. The soft tissue simulation engine simulates the morphology of facial soft tissue based on the collected data. The aesthetic proportion analysis module analyzes and optimizes the aesthetic proportions based on the facial feature points and soft tissue simulation results, combined with light-hybrid aesthetic standards, to ensure that the modeling effect is both personalized and aesthetically pleasing. The light hybrid parameter database includes a biometric database, a light hybrid index quantification system, and an AI aesthetic assessment system. The biometric database stores a large amount of facial biometric data from different populations, providing a rich reference for the design of personalized implants. The light hybrid index quantification system quantitatively analyzes various facial features based on light hybrid aesthetic standards, providing support for precise control of shaping effects. The AI ​​aesthetic assessment system uses artificial intelligence technology to aesthetically evaluate design solutions, ensuring that every detail achieves the optimal aesthetic effect. The personalized implant manufacturing system includes a high-precision 3D printing unit, a material optimization and selection module, and a microchannel guidance system. The high-precision 3D printing unit can accurately manufacture implants that match individual facial features based on data generated by the modeling engine. The material optimization and selection module selects the most suitable biomedical material based on the implant's location and functional requirements to ensure the safety and effectiveness of the implant. The microchannel guidance system assists doctors in accurately placing the implant in the predetermined position during surgery to achieve the optimal shaping effect. The intelligent decision-making support platform includes big data analysis units, machine learning units and artificial intelligence units. It can intelligently recommend the most suitable shaping plan based on the patient's facial features, personal preferences and aesthetic standards, provide decision support for doctors, and improve the accuracy and efficiency of surgery.The postoperative effect evaluation module includes a facial 3D reconstruction unit, a postoperative effect simulation system, and a patient satisfaction survey system. The facial 3D reconstruction unit can intuitively display the shaping effect based on pre- and post-operative data comparisons, providing doctors and patients with a clear basis for evaluation. The postoperative effect simulation system uses advanced simulation technology to predict the post-operative facial morphology, helping patients better understand the surgical results and make informed decisions. The patient satisfaction survey system collects patient feedback, continuously optimizes surgical plans and service processes, and improves overall service quality. The intelligent tracking and maintenance system includes an intelligent tracking module, a health management system, and a remote consultation platform. The intelligent tracking module regularly collects patients' facial data to monitor the status of implants and changes in facial morphology to ensure the long-term stability of the shaping effect. The health management system provides patients with personalized health guidance and advice based on tracking data, promoting the health and beauty of facial skin. The remote consultation platform uses Internet technology to enable remote communication and consultation between doctors and patients, allowing patients to understand their shaping results at any time and obtain professional advice and assistance. By integrating multimodal data acquisition modules, naso-brow arch joint modeling engine, light hybrid parameter database, personalized implant manufacturing system, intelligent decision-making support platform, postoperative effect evaluation module and intelligent tracking and maintenance system, a full-chain customized service from data acquisition, modeling design, implant manufacturing to postoperative effect evaluation and tracking maintenance is achieved.

[0027] Example 2: Based on Example 1, Figure 1As shown, the nose-brow arch joint modeling engine includes a facial feature recognition algorithm, a soft tissue simulation engine, and an aesthetic proportion analysis module. The facial feature recognition algorithm can automatically identify and extract key facial feature points. The soft tissue simulation engine simulates the morphology of facial soft tissue based on the collected data. The aesthetic proportion analysis module analyzes and optimizes the aesthetic proportions based on the facial feature points and soft tissue simulation results, combined with the light mixed-race aesthetic standards, to ensure that the shaping effect is both in line with individual characteristics and has the beauty of light mixed-race. The light mixed-race parameter database includes a biometric library, a light mixed-race index quantification system, and an AI aesthetic evaluation system. The biometric library stores a large amount of facial biometric data from different populations, providing rich references for the design of personalized implants. The light mixed-race index quantification system quantifies various facial features according to the light mixed-race aesthetic standards, providing support for precise control of the shaping effect. The AI ​​aesthetic evaluation system uses artificial intelligence technology to perform aesthetic evaluations on design solutions to ensure that every detail achieves the best aesthetic effect. The personalized implant manufacturing system includes a high-precision 3D printing unit, a material optimization and selection module, and a microchannel guidance system. The high-precision 3D printing unit can accurately manufacture implants that match individual facial features based on data generated by the modeling engine. The material optimization and selection module selects the most suitable biomedical material based on the implant's location and functional requirements, ensuring the implant's safety and effectiveness. The microchannel guidance system assists doctors in precisely placing the implant in the predetermined position during surgery to achieve the optimal shaping effect. The intelligent decision-making support platform, which includes a big data analysis unit, a machine learning unit, and an artificial intelligence unit, can intelligently recommend the most suitable shaping plan based on the patient's facial features, personal preferences, and aesthetic standards, providing decision support to doctors and improving the accuracy and efficiency of surgery. The postoperative effect evaluation module includes a facial 3D reconstruction unit, a postoperative effect simulation system, and a patient satisfaction survey system. The facial 3D reconstruction unit can intuitively display the shaping effect based on pre- and post-operative data comparisons, providing doctors and patients with a clear basis for evaluation. The postoperative effect simulation system uses advanced simulation technology to predict the post-operative facial morphology, helping patients better understand the surgical results and make informed decisions. The patient satisfaction survey system collects patient feedback, continuously optimizes surgical plans and service processes, and improves overall service quality. The intelligent tracking and maintenance system includes an intelligent tracking module, a health management system, and a remote consultation platform. The intelligent tracking module regularly collects patients' facial data to monitor the status of implants and changes in facial morphology to ensure the long-term stability of the shaping effect. The health management system provides patients with personalized health guidance and advice based on tracking data, promoting the health and beauty of facial skin. The remote consultation platform uses Internet technology to enable remote communication and consultation between doctors and patients, allowing patients to understand their shaping results at any time and obtain professional advice and assistance.By setting up a multimodal data acquisition module and a nose-brow arch joint modeling engine, the patient's facial features can be accurately captured and analyzed, providing personalized data support for subsequent design and manufacturing. The multimodal data acquisition module not only includes high-precision three-dimensional light field scanning and CT bone structure reconstruction, but also incorporates dynamic expression capture technology to ensure the natural and vivid shaping effect. The nose-brow arch joint modeling engine combines the patient's facial features with the light mixed-race aesthetic standards through facial feature recognition, soft tissue simulation and aesthetic proportion analysis to create a nose-brow arch shape that is both in line with personal characteristics and has a light mixed-race beauty.

[0028] Example 3: Based on Example 1 and Example 2, Figure 1As shown, the light hybrid parameter database includes a biometric database, a light hybrid index quantification system, and an AI aesthetic assessment system. The biometric database stores a large amount of facial biometric data from different populations, providing a rich reference for the design of personalized implants. The light hybrid index quantification system quantitatively analyzes various facial features based on light hybrid aesthetic standards, supporting precise control of the shaping effect. The AI ​​aesthetic assessment system uses artificial intelligence technology to aesthetically evaluate design solutions, ensuring that every detail achieves the optimal aesthetic effect. The personalized implant manufacturing system includes a high-precision 3D printing unit, a material optimization selection module, and a microchannel guidance system. The high-precision 3D printing unit can accurately manufacture implants that match individual facial features based on data generated by the modeling engine. The material optimization selection module selects the most suitable biomedical material based on the implant's location and functional requirements to ensure the safety and effectiveness of the implant. The microchannel guidance system assists doctors in accurately placing the implant in the predetermined position during surgery to achieve the optimal shaping effect. The intelligent decision-making support platform, comprised of big data analysis, machine learning, and artificial intelligence, intelligently recommends the most appropriate facial contouring plan based on the patient's facial features, personal preferences, and aesthetic standards, providing decision support for physicians and improving surgical accuracy and efficiency. The postoperative outcome assessment module includes a 3D facial reconstruction unit, a postoperative outcome simulation system, and a patient satisfaction survey system. The 3D facial reconstruction unit visually demonstrates the contouring results by comparing pre- and post-operative data, providing a clear basis for evaluation for both physicians and patients. The post-operative outcome simulation system utilizes advanced simulation technology to predict post-operative facial morphology, helping patients better understand the surgical outcome and make informed decisions. The patient satisfaction survey system collects patient feedback to continuously optimize surgical plans and service processes, enhancing overall service quality. The intelligent tracking and maintenance system comprises an intelligent tracking module, a health management system, and a remote consultation platform. The intelligent tracking module regularly collects patient facial data to monitor implant status and changes in facial morphology, ensuring the long-term stability of the contouring results. The health management system uses this tracking data to provide patients with personalized health guidance and recommendations, promoting facial skin health and beauty. The remote consultation platform leverages internet technology to enable remote communication and consultation between physicians and patients, allowing patients to monitor their contouring results and receive professional advice and assistance at any time. By setting up a light hybrid parameter database, the rich data of the light hybrid parameter database and the intelligent evaluation of the AI ​​aesthetic evaluation system provide strong support for the design of personalized implants. The high-precision 3D printing and material optimization selection of the personalized implant manufacturing system ensure the safety and effectiveness of the implants. The big data analysis and machine learning technology of the intelligent decision-making platform provide doctors with intelligent recommendations and decision-making support, improving the accuracy and efficiency of surgery.

[0029] Example 4: Based on Example 1, Example 2 and Example 3, Figure 1 As shown, the personalized implant manufacturing system includes a high-precision 3D printing unit, a material optimization and selection module, and a microchannel guidance system. The high-precision 3D printing unit can accurately manufacture implants that conform to individual facial features based on data generated by the modeling engine. The material optimization and selection module selects the most suitable biomedical material based on the implant's location and functional requirements to ensure the safety and effectiveness of the implant. The microchannel guidance system assists the surgeon in accurately placing the implant in the predetermined position during surgery to achieve the optimal shaping effect. The intelligent decision-making support platform includes a big data analysis unit, a machine learning unit, and an artificial intelligence unit. It can intelligently recommend the most suitable shaping plan based on the patient's facial features, personal preferences, and aesthetic standards, providing decision support to the surgeon and improving the accuracy and efficiency of the surgery. The postoperative effect evaluation module includes a 3D facial reconstruction unit, a postoperative effect simulation system, and a patient satisfaction survey system. The 3D facial reconstruction unit visually demonstrates the contouring results based on pre- and post-operative data comparisons, providing a clear basis for evaluation for both doctors and patients. The postoperative effect simulation system uses advanced simulation technology to predict postoperative facial morphology, helping patients better understand the surgical results and make informed decisions. The patient satisfaction survey system collects patient feedback to continuously optimize surgical plans and service processes, enhancing overall service quality. The intelligent tracking and maintenance system includes an intelligent tracking module, a health management system, and a remote consultation platform. The intelligent tracking module regularly collects patient facial data to monitor implant status and changes in facial morphology, ensuring the long-term stability of the contouring results. The health management system uses this tracking data to provide patients with personalized health guidance and recommendations to promote facial skin health and beauty. The remote consultation platform utilizes internet technology to enable remote communication and consultation between doctors and patients, allowing patients to monitor their contouring results at any time and receive professional advice and assistance. The postoperative effect evaluation module's 3D facial reconstruction and post-operative effect simulation provide a visual display of the contouring results, helping patients make informed decisions. The intelligent tracking and maintenance system's intelligent tracking, health management and remote consultation ensure the long-lasting stability of the shaping effect and provide patients with convenient professional consultation and assistance.

[0030] Example 5: Based on Example 1, Example 2, Example 3 and Example 4, Figure 1As shown, the intelligent auxiliary decision-making platform includes a big data analysis unit, a machine learning unit, and an artificial intelligence unit, which can intelligently recommend the most suitable shaping plan according to the patient's facial features, personal preferences, and aesthetic standards, providing decision support for doctors and improving the accuracy and efficiency of surgery. The postoperative effect evaluation module includes a facial three-dimensional reconstruction unit, a postoperative effect simulation system, and a patient satisfaction survey system. The facial three-dimensional reconstruction unit can compare preoperative and postoperative data to visually demonstrate the shaping effect, providing clear evaluation basis for doctors and patients. The postoperative effect simulation system uses advanced simulation technology to predict the postoperative facial morphology, helping patients better understand the surgical effect and make informed decisions. The patient satisfaction survey system collects feedback from patients, continuously optimizes surgical plans and service processes, and improves overall service quality. The intelligent tracking and maintenance system includes an intelligent tracking module, a health management system, and a remote consultation platform. The intelligent tracking module regularly collects facial data to monitor the status of the implanted body and changes in facial morphology, ensuring the durability and stability of the shaping effect. The health management system provides personalized health guidance and recommendations based on tracking data to promote facial skin health and beauty. The remote consultation platform uses internet technology to enable remote communication and consultation between doctors and patients, allowing patients to easily monitor their shaping effect and obtain professional advice and assistance. By setting up the intelligent tracking and maintenance system, the intelligent tracking and maintenance system can monitor the patient's recovery in real time and make timely adjustments and optimizations as needed to ensure the best shaping effect. In addition, the intelligent tracking and maintenance system can provide personalized health guidance and recommendations through the health management system to promote facial skin health and beauty, further improving patient satisfaction and trust.

[0031] Working Principle of the Present Invention: The working principle of the present invention is primarily based on the various components of the customized, integrated naso-brow arch system for light mixed-race, three-dimensional, light facial sculpting and their synergy. First, the mold provides a precise bony foundation, offering stable support for subsequent facial sculpting. The dynamic expression capture unit captures the patient's facial expressions in real time, ensuring that the patient's natural facial features are preserved during the sculpting process, making the sculpting effect more vivid and realistic. The naso-brow arch joint modeling engine automatically identifies and extracts key facial feature points using a facial feature recognition algorithm. These feature points provide basic data for subsequent aesthetic analysis and personalized design. The soft tissue simulation engine simulates the morphology of facial soft tissue based on the collected data, further enriching the details of facial sculpting. The aesthetic proportion analysis module analyzes and optimizes the aesthetic proportions of facial feature points and soft tissue simulation results in accordance with light mixed-race aesthetic standards, ensuring that the sculpting effect is both personalized and aesthetically pleasing. The light mixed-race parameter database stores a large amount of facial biometric data and light mixed-race aesthetic standards from different populations, providing a rich reference for the design of personalized implants. The light hybrid index quantification system quantitatively analyzes facial features, enabling precise control of facial contouring results and ensuring that every detail meets aesthetic standards. The AI ​​aesthetic assessment system utilizes artificial intelligence technology to aesthetically evaluate design solutions, further enhancing the accuracy and aesthetic value of facial contouring. The personalized implant manufacturing system, based on data generated by the modeling engine, utilizes a high-precision 3D printing unit to precisely produce implants tailored to individual facial features. The material optimization selection module selects the most suitable biomedical material based on the implant's intended location and functional requirements, ensuring implant safety and effectiveness. The microchannel guidance system assists surgeons in precisely placing implants in the intended location during surgery for optimal facial contouring results. The intelligent decision-making support platform, leveraging big data analysis, machine learning, and artificial intelligence, intelligently recommends the most appropriate facial contouring plan based on the patient's facial features, personal preferences, and aesthetic standards, providing decision support to surgeons. This not only improves surgical accuracy and efficiency but also reduces uncertainty and risk during surgery. The postoperative outcome assessment module comprehensively evaluates facial contouring results through a facial 3D reconstruction unit, a postoperative outcome simulation system, and a patient satisfaction survey system. The facial 3D reconstruction unit can intuitively display the before-and-after effects, providing doctors and patients with a clear basis for evaluation. The postoperative effect simulation system can help patients better understand the surgical results and make informed decisions. The patient satisfaction survey system collects patient feedback to continuously optimize surgical plans and service processes, thereby improving overall service quality. The intelligent tracking and maintenance system provides long-term patient tracking and maintenance through an intelligent tracking module, health management system, and remote consultation platform. The intelligent tracking module regularly collects the patient's facial data, monitors the status of the implant and changes in facial morphology, and ensures the long-term stability of the shaping effect.The health management system provides patients with personalized health guidance and advice based on tracking data, promoting healthy and beautiful facial skin. The remote consultation platform uses internet technology to enable remote communication and consultation between doctors and patients, allowing patients to monitor their facial contouring results at any time and receive professional advice and assistance.

[0032] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A customized integrated nose-brow arch light hybrid three-dimensional light face shaping system, including a multimodal data acquisition module, a nose-brow arch joint modeling engine, a light hybrid parameter database, a personalized implant manufacturing system, an intelligent auxiliary decision-making platform, a postoperative effect evaluation module and an intelligent tracking and maintenance system. The multimodal data acquisition module includes a three-dimensional light field scanning unit, a CT bone structure reconstruction unit and a dynamic expression capture unit.

2. The customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system according to claim 1 is characterized by: The nose-brow arch joint modeling engine includes a facial feature recognition algorithm, a soft tissue simulation engine and an aesthetic proportion analysis module.

3. The customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system according to claim 1 is characterized by: The light hybrid parameter database includes a biometric library, a light hybrid index quantification system and an AI aesthetic evaluation system.

4. The customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system according to claim 1 is characterized by: The personalized implant manufacturing system includes a high-precision 3D printing unit, a material optimization selection module and a microchannel guidance system.

5. The customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system according to claim 1 is characterized by: The intelligent decision-making support platform includes a big data analysis unit, a machine learning unit and an artificial intelligence unit.

6. The customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system according to claim 1 is characterized by: The postoperative effect evaluation module includes a facial three-dimensional reconstruction unit, a postoperative effect simulation system and a patient satisfaction survey system.

7. The customized nose-brow arch integrated light mixed-blood three-dimensional light face shaping system according to claim 1 is characterized by: The intelligent tracking and maintenance system includes an intelligent tracking module, a health management system and a remote consultation platform.

Images