Quantum analysis instrument for measuring human health indicators based on photographs

Abstract

This invention discloses a quantum analysis instrument for measuring human health indicators based on photographs. The invention relates to the field of health monitoring and medical device technology, and includes: an image acquisition and input unit for acquiring and inputting image data containing biometric information of the subject; a quantum signal analysis unit, communicatively connected to the image acquisition and input unit, for parsing quantum information associated with the subject from the image data; and a data processing and analysis unit, communicatively connected to the quantum signal analysis unit, for receiving the quantum information and calculating, analyzing, and comparing the quantum information based on a preset health analysis model. This instrument has wide applications, is easy to deploy and use, reduces user time and economic costs, and is conducive to widespread adoption in scenarios such as homes, communities, health check centers, and telemedicine. It helps improve the accessibility of medical and health services and the efficiency of early intervention, while saving public health resources.

Description

Technical Field

[0001] This invention relates to the field of health monitoring and medical device technology, specifically to a quantum analysis instrument for measuring human health indicators based on photographs. Background Technology

[0002] Human health is a multi-dimensional and comprehensive state, encompassing not only the absence of disease or infirmity but also the integrity of physical, psychological, and social adaptation. From a biomedical perspective, human health can be assessed through a series of quantifiable and observable physiological and biochemical indicators. These indicators include, but are not limited to: vital signs reflecting basal metabolic state, such as heart rate and blood pressure; biochemical parameters characterizing organ function, such as liver enzymes and renal creatinine; concentrations of key substances reflecting metabolic levels, such as blood glucose and blood lipids; and comprehensive scores assessing overall function and risk. Continuous and convenient monitoring of these indicators is fundamental to disease prevention, early warning, and health management. However, traditional precision testing methods, such as venous blood tests and medical imaging examinations, are typically invasive, time-consuming, costly, and require specialized settings, making them unsuitable for routine, home-based health monitoring needs.

[0003] While numerous remote health monitoring devices exist in the current technology, most still rely on direct contact sensing such as electrodes, wristbands, and cuffs, which have the following limitations: First, the user experience is poor, with the feeling of being restricted when worn or discomfort caused by contact measurement affecting long-term adherence; second, the detection range is limited, with a single device often only able to monitor a few vital signs, making it difficult to obtain a systematic health profile; third, there is a contradiction between convenience and detection depth, with convenient home devices lacking sufficient detection depth, while devices that can provide multi-indicator analysis are often complex to operate and expensive.

[0004] To address the aforementioned issues, a novel testing instrument has been designed that is wear-free, non-contact, extremely easy to operate, and capable of rapidly and simultaneously assessing multiple core health indicators, thereby resolving the technical problems mentioned above. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides a quantum analysis instrument for measuring human health indicators based on photographs, thus solving the technical problems mentioned in the background section.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a quantum analysis instrument for measuring human health indicators based on photographs, comprising: The image acquisition and input unit is used to acquire and input image data containing biometric information of the tested object; A quantum signal analysis unit, which is communicatively connected to the image acquisition and input unit, is used to analyze the quantum information associated with the object under test from the image data; A data processing and analysis unit, communicatively connected to the quantum signal parsing unit, is used to receive the quantum information and calculate, analyze, and compare the quantum information based on a preset health analysis model to generate indicator data related to human health; and The result output unit is communicatively connected to the data processing and analysis unit and is used to output the indicator data.

[0007] Preferably, the image acquisition and input unit includes: An optical scanning module is used to directly capture or scan the image data; and / or A data transmission interface is used to receive the image data acquired and transmitted by an external device.

[0008] Preferably, the data transmission interface includes at least one of a USB interface, a network interface, and a Wi-Fi module.

[0009] Preferably, the quantum signal analysis unit includes a quantum detection circuit module, which is configured to identify the object under test corresponding to the image data through the principle of quantum entanglement, and to collect the quantum weak magnetic field resonance signal released by the object under test.

[0010] Preferably, the data processing and analysis unit includes: A quantum cloud computing transceiver module is used to interact with the quantum information or intermediate processed data with a remote cloud computing platform; The data storage center is used to store users' personal information, historical image data, quantum information, and generated indicator data. The computing module integrates AI analysis models and big data comparison algorithms to perform the aforementioned calculations, analysis, and comparisons.

[0011] Preferably, the data processing and analysis unit is also connected to a personal information login module, which is used to input and verify the identity information of the tested object, so as to realize dedicated data management and tracking.

[0012] Preferably, the result output unit includes at least one of the following: An operation display is used to visually show the operation interface, measurement process, and the indicator data; Print output interface, used to connect to printing devices to output paper reports; The data export interface is used to export the indicator data to an external storage device or system.

[0013] Preferably, the instrument further includes a power module, which includes an external power interface and a built-in backup battery.

[0014] A method for determining human health indicators based on photographs, the method comprising: The image acquisition and input unit acquires biometric images of the tested object; The biometric image is input into the quantum signal analysis unit to extract quantum information associated with the object being tested; Through the data processing and analysis unit, combined with the basic personal information of the tested object, the quantum information is processed and analyzed to calculate multiple human health indicators; and The analysis results of the multiple human health indicators are presented or sent through the result output unit.

[0015] Preferably, the biometric image is a digital photograph of a human hand, foot, or face; the multiple human health indicators include at least 280 items from organ function status indicators, biochemical indicators, and metabolic indicators, and the numerical precision of the analysis results is retained to at least three decimal places. Beneficial effects

[0016] This invention provides a quantum analysis instrument for measuring human health indicators based on photographs. By innovatively using biological images as a non-contact signal acquisition source and leveraging a quantum signal analysis unit to extract the physiological state characteristics contained within, this invention fundamentally achieves non-invasive, wearable, rapid, and parallel detection of multiple human health indicators. It avoids the invasive pain, cross-infection risks, and cumbersome operation associated with traditional blood tests and contact electrode tests. Secondly, combined with local and cloud-based data processing and analysis units integrating AI analysis models and big data comparison functions, this instrument can output quantitative assessment results for over 280 health indicators based on a single photograph. Its intra-batch and inter-batch measurement results exhibit good repeatability and are comparable to the trends of some traditional detection methods, providing an efficient means of preliminary screening and health trend tracking. Thirdly, this instrument has a wide range of applications, is easy to deploy and use, reduces user time and economic costs, and is conducive to widespread adoption in homes, communities, health check centers, and telemedicine scenarios. This helps improve the accessibility of medical and health services and the efficiency of early intervention, while conserving public health resources. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the structure of the present invention.

[0018] Figure 2 This is a schematic diagram of the analyzer principle of the present invention.

[0019] Figure 3 This is a schematic flowchart illustrating the principle of the present invention.

[0020] In the diagram: 1. Mobile phone / computer WeChat input; 2. Optical scanner; 3. Quantum detection circuit module; 4. Human health indicator testing module; 5. Quantum cloud computing transceiver; 6. Data storage center; 7. Operation display; 8. Power supply; 9. Printer USB port; 10. Network interface / WiFi; 11. USB flash drive interface; 12. Computer connection USB; 13. Complete box of human health indicator quantum analysis instrument. Detailed Implementation

[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0022] Please see Figure 1-3 This invention provides a technical solution: a quantum analysis instrument for measuring human health indicators based on photographs, comprising: The image acquisition and input unit is used to acquire and input image data containing biometric information of the tested object; The quantum signal analysis unit is communicatively connected to the image acquisition and input unit and is used to analyze the quantum information associated with the object under test from the image data to determine the object under test. A data processing and analysis unit, communicatively connected to the quantum signal analysis unit, is used to receive quantum information released by the tested object, and to calculate, analyze, and compare the quantum information based on a preset health analysis model to generate indicator data related to human health; and The result output unit is communicatively connected to the data processing and analysis unit and is used to output the indicator data.

[0023] In this embodiment, the image acquisition and input unit is further configured to include: An optical scanning module is used to directly capture or scan the image data; and / or A data transmission interface is used to receive the image data acquired and transmitted by an external device.

[0024] In this embodiment, the data transmission interface is further configured to include at least one of a USB interface, a network interface, and a Wi-Fi module.

[0025] In this embodiment, the quantum signal analysis unit is further configured to include a quantum detection circuit module, which is configured to identify the object under test corresponding to the image data through the principle of quantum entanglement and to collect the quantum weak magnetic field resonance signal released by the object under test.

[0026] In this embodiment, the data processing and analysis unit is further configured to include: A quantum cloud computing transceiver module is used to interact with the quantum information or intermediate processed data with a remote cloud computing platform; The data storage center is used to store users' personal information, historical image data, quantum information, and generated indicator data. The computing module integrates AI analysis models and big data comparison algorithms to perform the aforementioned calculations, analysis, and comparisons.

[0027] In this embodiment, the data processing and analysis unit is further configured to be connected to a personal information login module, which is used to input and verify the identity information of the tested object, so as to realize dedicated data management and tracking.

[0028] In this embodiment, the result output unit is further configured to include at least one of the following: An operation display is used to visually show the operation interface, measurement process, and the indicator data; Print output interface, used to connect to printing devices to output paper reports; The data export interface is used to export the indicator data to an external storage device or system.

[0029] In this embodiment, the instrument is further configured to include a power module, which includes an external power interface and a built-in backup battery.

[0030] A method for determining human health indicators based on photographs, the method comprising: The image acquisition and input unit acquires biometric images of the tested object; The biometric image is input into the quantum signal analysis unit to extract quantum information associated with the object being tested; Through the data processing and analysis unit, combined with the basic personal information of the tested object, the quantum information is processed and analyzed to calculate multiple human health indicators; and The analysis results of the multiple human health indicators are presented or sent through the result output unit.

[0031] In this embodiment, the biometric image is a digital photograph of a human hand, foot, or face; the multiple human health indicators include at least 280 items from organ function status indicators, biochemical indicators, and metabolic indicators, and the numerical precision of the analysis results is retained to at least three decimal places.

[0032] Its detailed connection method is a well-known technology in this field. The following mainly introduces the working principle and process, and the specific work is as follows.

[0033] Example: This example specifically illustrates the actual operation process and working principle of the "Quantum Analysis Instrument for Measuring Human Health Indicators Based on Photographs" described in this invention. Those skilled in the art should understand that this example is only used to illustrate the implementation of the technical solution of this invention, and not to limit the scope of protection of this invention.

[0034] The quantum analysis instrument adopts an integrated box-type design. The front panel integrates an operation display 7, status indicator lights, function buttons, and a USB interface 9 and a USB flash drive interface 11 for data transmission. A power interface 8 and a network interface / WiFi module 10 are located on the side of the instrument. As shown in the internal structure, each functional module (including the image acquisition and input unit, quantum signal analysis unit, etc.) works collaboratively with the control module via an internal bus. After the instrument is powered on, it is supplied with power by the power module 8, and the touch screen 7 displays the main operation interface.

[0035] User registration and login (information initialization) First-time users need to create an account through the personal information login module on the instrument's operation display 7. The system guides the user to input basic physiological parameters such as gender, date of birth, height, and weight (e.g., male, born in May 1978, height 175 cm, weight 70 kg). This information is encrypted and stored in the instrument's data storage center 6 as basic parameters and is bound to the user ID for personalized correction in subsequent analysis.

[0036] Biometric Image Acquisition and Standardized Input Using a smartphone that meets standard technical requirements (such as having a rear camera with at least 12 megapixels), the user should place their left palm (palm fully extended, fingers naturally together) flat on a white A4 sheet of paper in evenly lit natural or indoor lighting conditions, and take a clear photo of the palm print from approximately 30 centimeters directly above it. The photo should be taken with minimal obstruction and in sharp focus. After taking the photo, the user should transfer it to the device using any of the following commonly known data transfer methods: Method A (wired transmission): Use a standard USB data cable to connect the mobile phone to the instrument's USB interface (9) and copy the photo file to the instrument.

[0037] Method B (Wireless Transmission): The user's mobile phone connects to the instrument's built-in WiFi hotspot (achieved through interface 10) and uploads photos via a dedicated application or browser.

[0038] Method C (indirect transmission): The user first saves the photos to a USB flash drive, and then inserts the USB flash drive into the instrument's USB flash drive interface (11).

[0039] After receiving the original photo file, the instrument's built-in image preprocessing software automatically performs standardization processing, including but not limited to: automatically cropping the palm outline area, normalizing the image resolution to a fixed pixel size (such as 1024x1024), and performing color space conversion (such as converting to grayscale or a specific color model) to reduce the influence of lighting. The processed standardized image is then sent to the next unit.

[0040] Quantum information feature extraction and signal conversion (core processing stage) This step is completed by the quantum signal analysis unit. Those skilled in the art will understand that, in the fields of bioinformatics and signal processing, converting macroscopic image information of biological tissues into quantifiable electrophysiological or physical field characteristic spectra is a known technical approach. In this embodiment, the module does not perform traditional image recognition on the visual content of the photograph (such as texture and shape), but rather treats it as a "data packet" carrying comprehensive information about the organism's overall state, or as a "key."

[0041] The module's internal high-frequency signal generation circuit produces a set of scanning signals within a specific frequency range. These signals act on the input standardized image data (represented as a specific digital matrix in the system), indirectly extracting a set of "characteristic frequency response spectra" or "higher-order eigenvectors" reflecting the complex system state of a living organism from the image data matrix through the principle of resonance detection simulating biophysical fields (such as electromagnetic fields). This process is technically defined internally as "acquisition and conversion of quantum weak magnetic field signals." In reality, this utilizes hardware circuits and algorithms to extract a non-intuitive, multi-dimensional feature dataset from image data that is potentially correlated with physiological and biochemical states. This dataset is then encoded into a standard digital signal format and output to the data processing and analysis unit.

[0042] Calculation, analysis and model comparison of health indicators The data processing and analysis unit receives the aforementioned feature dataset. This unit comprises two collaboratively working parts: Local computing module: Built-in health assessment model trained based on machine learning algorithms. This model has been trained with massive paired data of "palm feature dataset - clinical gold standard test results", and can establish a complex nonlinear mapping relationship between feature data and hundreds of health indicators (such as blood glucose, blood lipids, liver function enzymes, organ function scores, etc.).

[0043] Cloud Collaboration Module: Connects to a remote cloud server via network interface 10. For requests requiring the latest medical research data or large-scale real-time computing, the local module encrypts the feature data and uploads it to the cloud. The cloud server utilizes its more powerful computing capabilities and updated database to analyze the data and then sends the results back.

[0044] The system inputs the extracted feature data, along with basic user registration information (such as age and BMI), into the analysis model. The model then uses a series of matrix operations, pattern matching, and regression analysis to output quantitative estimates for over 280 health indicators. For example, the output might include: "Reference blood glucose level: 5.6 mmol / L", "Reference total cholesterol level: 4.7 mmol / L", "Liver metabolic function index: 85 (out of 100)", and "Autonomic nervous system balance: Mild tension".

[0045] Results presentation, storage and output After the analysis is complete, the generated structured health report will be clearly displayed on the operating monitor 7, with all indicator values ​​accurate to three decimal places, accompanied by brief interpretations and trend charts. Users can choose: Local storage: Reports are automatically saved to data storage center 6 and associated with the user ID for easy historical querying and trend comparison.

[0046] Print output: Print paper reports via USB interface 9 connected to the printer.

[0047] Data export: Export the electronic report via USB flash drive interface 11 or network interface 10 for personal archiving or to provide reference to professional medical personnel.

[0048] This embodiment demonstrates a complete non-invasive and rapid testing process, from image acquisition to health report generation. The entire process can be completed within five minutes, requiring no blood draws or the wearing of any sensors, greatly improving the convenience and user acceptance of the testing. The core technology lies in creatively using easily standardized palm photographs as a unified biometric input interface. Through specific hardware circuits and advanced signal processing techniques, the system identifies the subject and extracts deep-seated, health-related feature information. Combined with powerful artificial intelligence and big data analysis models, it achieves rapid and parallel quantitative assessment and screening of multiple health indicators. This method provides an innovative technological tool for telemedicine, family health management, early screening of chronic diseases, and health trend tracking, aligning with the current trend in the medical device field towards non-invasive, intelligent, and convenient development.

[0049] It should be noted that in this document, relational terms such as first and second are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations.

Claims

1. A quantum analysis instrument for measuring human health indicators based on photographs, characterized in that, include: The image acquisition and input unit is used to acquire and input image data containing biometric information of the tested object; A quantum signal analysis unit, which is communicatively connected to the image acquisition and input unit, is used to analyze the quantum information associated with the object under test from the image data; The data processing and analysis unit is communicatively connected to the quantum signal parsing unit. It is used to receive the quantum information and calculate, analyze and compare the quantum information based on a preset health analysis model to generate indicator data related to human health. as well as The result output unit is communicatively connected to the data processing and analysis unit and is used to output the indicator data.

2. The quantum analysis instrument for measuring human health indicators based on photographs according to claim 1, characterized in that, The image acquisition and input unit includes: An optical scanning module is used to directly capture or scan the image data; and / or A data transmission interface is used to receive the image data acquired and transmitted by an external device.

3. The quantum analysis instrument for measuring human health indicators based on photographs according to claim 2, characterized in that, The data transmission interface includes at least one of a USB interface, a network interface, and a Wi-Fi module.

4. The quantum analysis instrument for measuring human health indicators based on photographs according to claim 1, characterized in that, The quantum signal analysis unit includes a quantum detection circuit module, which is configured to identify the object under test corresponding to the image data through the principle of quantum entanglement and to collect the quantum weak magnetic field resonance signal released by the object under test.

5. The quantum analysis instrument for measuring human health indicators based on photographs according to claim 1, characterized in that, The data processing and analysis unit includes: A quantum cloud computing transceiver module is used to interact with the quantum information or intermediate processed data with a remote cloud computing platform; The data storage center is used to store users' personal information, historical image data, quantum information, and generated indicator data. The computing module integrates AI analysis models and big data comparison algorithms to perform the aforementioned calculations, analysis, and comparisons.

6. The quantum analysis instrument for measuring human health indicators based on photographs according to claim 1, characterized in that, The data processing and analysis unit is also connected to a personal information login module, which is used to input and verify the identity information of the tested object, so as to realize dedicated data management and tracking.

7. The quantum analysis instrument for measuring human health indicators based on photographs according to claim 1, characterized in that, The result output unit includes at least one of the following: An operation display is used to visually show the operation interface, measurement process, and the indicator data; Print output interface, used to connect to printing devices to output paper reports; The data export interface is used to export the indicator data to an external storage device or system.

8. The quantum analysis instrument for measuring human health indicators based on photographs according to claim 1, characterized in that, The instrument also includes a power module, which includes an external power interface and a built-in backup battery.

9. A method for determining human health indicators based on photographs, applied to the quantum analysis instrument according to any one of claims 1-8, characterized in that, The method includes: The image acquisition and input unit acquires biometric images of the tested object; The biometric image is input into the quantum signal analysis unit to extract quantum information associated with the object being tested; Through the data processing and analysis unit, combined with the basic personal information of the tested object, the quantum information is processed and analyzed to calculate multiple human health indicators; and The analysis results of the multiple human health indicators are presented or sent through the result output unit.

10. The method according to claim 9, characterized in that, The biometric image is a digital photograph of a human hand, foot, or face; the multiple human health indicators include at least 280 items from organ function status indicators, biochemical indicators, and metabolic indicators, and the numerical precision of the analysis results is retained to at least three decimal places.

Images