Evaluation method based on multi-parameter viscera meridian function and human body energy level

Abstract

The invention discloses an assessment method based on multi-parameter viscera meridian function and human body energy level, and relates to the technical field of health assessment. The evaluation method based on the multi-parameter viscera meridian function and the human body energy level comprises the following steps: acquiring viscera meridian state data and energy state data of a to-be-evaluated object, and respectively performing data analysis to obtain a viscera health evaluation index, a meridian health evaluation index and an energy health evaluation index of the to-be-evaluated object; the viscera health assessment index and the meridian health assessment index are comprehensively analyzed to obtain the viscera meridian comprehensive health assessment index, by analyzing viscera and meridian state data and energy state data, more comprehensive health assessment is provided, relevance between viscera and meridians is considered, and the comprehensive health assessment index of viscera and meridians is obtained. Therefore, more comprehensive health state diagnosis of the to-be-evaluated object is realized, the accuracy and reliability of health evaluation are effectively improved, and misjudgment caused by one-sided analysis is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of health assessment, and specifically to an assessment method based on multi-parameter viscera meridian functions and human energy levels. Background Art

[0002] The viscera meridian involves the physiological and pathological states of viscera organs and the meridian system. The viscera include the five zang-organs, namely the heart, liver, spleen, lung, and kidney, while the six fu-organs are the gallbladder, stomach, large intestine, small intestine, bladder, and triple energizer. They work together to regulate the body's metabolism, immunity, digestion and other functions. The meridian system connects the viscera and the limbs through twelve main meridians and the eight extraordinary meridians, transmits qi and blood, regulates the body's energy flow, and also regulates the balance of qi and blood, affecting human health. Moreover, the human energy level reflects the body's metabolic state and energy reserve, directly affecting health and daily activity ability. Energy mainly comes from food intake and is converted into usable energy in the body through digestion and absorption. The body's energy consumption is determined by factors such as basal metabolism, exercise metabolism, and the thermic effect of food. A good energy level can maintain the normal functions of the body, enhance immunity and disease resistance, while energy imbalance may trigger metabolic diseases such as obesity and diabetes.

[0003] An existing technology, such as a sub-health quantitative assessment system based on meridian balance disclosed in a patent application with the publication number of CN109509553B, measures the relative resistance value of the skin resistance between the well points of the left and right twelve main meridians and the contralateral Laogong point, calculates the deviation degree of a single meridian and the deviation degree of this meridian relative to the overall level through a weighted statistical algorithm based on traditional Chinese medicine meridian theory, and calculates the deviation degree between an individual and a healthy population through big data methods. Finally, a total deviation degree is calculated to reflect the unbalanced state of the human body, and the degree of sub-health of the human body can be directly reflected by this data; it can directly quantitatively evaluate the sub-health level through the characteristics of meridian skin resistance, and can also locate a certain meridian to prompt possible qi and blood level problems in the corresponding viscera, providing guiding suggestions for disease prevention. The whole operation process is non-invasive and simple to implement, easy to be further integrated and intelligentized, and even can achieve real-time monitoring.

[0004] Based on the above scheme, it is found that the limitations of the existing technology at least include the following problems. The existing technology lacks comprehensive consideration of viscera functions, meridian states, and the overall human energy level, resulting in one-sided evaluation results and being difficult to comprehensively reflect the health status of the evaluation object. Secondly, when dealing with multi-faceted health indicators, the existing technology is difficult to effectively integrate multi-dimensional data, such as the correlations between viscera health and meridian health, resulting in a lack of depth in the evaluation of the health state, and further reducing the accuracy of health assessment. Summary of the Invention

[0005] Aiming at the deficiencies of the prior art, the present invention provides an evaluation method based on multi-parameter viscera-meridian functions and human energy levels, solving the problems of the prior art lacking comprehensive evaluation and ignoring the association between viscera and meridians, resulting in inaccurate health evaluation.

[0006] To achieve the above objectives, the present invention is realized through the following technical solutions: An evaluation method based on multi-parameter viscera-meridian functions and human energy levels, comprising the following steps: obtaining the viscera-meridian state data and energy state data of the object to be evaluated, wherein the viscera-meridian state data includes viscera state data and meridian state data; respectively performing data analysis on the viscera-meridian state data and energy state data of the object to be evaluated to obtain the viscera health evaluation index, meridian health evaluation index, and energy health evaluation index of the object to be evaluated; and comprehensively analyzing the viscera health evaluation index and meridian health evaluation index of the object to be evaluated to obtain the comprehensive viscera-meridian health evaluation index of the object to be evaluated; respectively comparing the comprehensive viscera-meridian health evaluation index and energy health evaluation index of the object to be evaluated with the preset comprehensive viscera-meridian health evaluation threshold and energy health evaluation threshold range for judgment and analysis, and taking health management measures based on the corresponding judgment and analysis results.

[0007] Further, the viscera state data includes liver enzyme content value, creatinine content value, urea nitrogen content value, plasma heavy metal content value, cortisol content value, blood electrolyte content value, norepinephrine content value, the meridian state data includes pulse pressure value, pulse frequency value, pulse intensity value, pulse wave propagation velocity value, and the conductivity value, impedance value, and temperature value of each meridian point of each meridian, and the energy state data includes oxygen consumption value, carbon dioxide output value, blood oxygen saturation value, muscle mass value, body water content value, blood glucose content value, free fatty acid content value.

[0008] Further, the specific steps to obtain the viscera health assessment index of the object to be evaluated are as follows: Obtain the reference values of liver enzyme content, creatinine content, and urea nitrogen content of the object to be evaluated; perform normalization processing on the liver enzyme content value, creatinine content value, urea nitrogen content value, plasma heavy metal content value, and the reference values of liver enzyme content, creatinine content, and urea nitrogen content of the object to be evaluated; comprehensively analyze the normalized liver enzyme content value, creatinine content value, urea nitrogen content value, plasma heavy metal content value, and the reference values of liver enzyme content, creatinine content, and urea nitrogen content of the object to be evaluated to obtain the viscera detoxification function assessment index of the object to be evaluated; and obtain the reference values of cortisol content, blood electrolyte content, and norepinephrine content of the object to be evaluated, and comprehensively analyze them with the cortisol content value, blood electrolyte content value, and norepinephrine content value to obtain the viscera regulation function assessment index of the object to be evaluated; comprehensively analyze the viscera detoxification function assessment index and the viscera regulation function assessment index of the object to be evaluated to obtain the viscera health assessment index of the object to be evaluated.

[0009] Further, the formulas for calculating the viscera detoxification function assessment index, viscera regulation function assessment index, and viscera health assessment index of the object to be evaluated are as follows: Among them, ZpD is the viscera detoxification function assessment index of the object to be evaluated, GmH′ is the liver enzyme content value of the object to be evaluated after normalization, GmK′ is the reference value of the liver enzyme content of the object to be evaluated after normalization, α 1 is the liver enzyme coefficient stored in the database, TgH′ is the creatinine content value of the object to be evaluated after normalization, TgK′ is the reference value of the creatinine content of the object to be evaluated after normalization, α 2 is the creatinine coefficient stored in the database, NsH′ is the urea nitrogen content value of the object to be evaluated after normalization, NsK′ is the reference value of the urea nitrogen content of the object to be evaluated after normalization, α 3 is the urea nitrogen coefficient stored in the database, XtZ′ is the plasma heavy metal content value of the object to be evaluated after normalization, α 4 is the heavy metal coefficient stored in the database, α 1 +α 2 +α 3 +α 4 =1, HtD is the viscera regulation function assessment index of the object to be evaluated, PzC is the cortisol content value of the object to be evaluated, PzK is the reference value of the cortisol content of the object to be evaluated, β 1 is the cortisol coefficient stored in the database, DtZ is the blood electrolyte content value of the object to be evaluated, DtC is the reference value of the blood electrolyte content of the object to be evaluated, β 2The electrolyte coefficient stored in the database, QtS is the norepinephrine content value of the object to be evaluated, QtC is the norepinephrine content reference value of the object to be evaluated, and β 3 is the norepinephrine coefficient stored in the database, β 1 +β 2 +β 3 = 1, FzH is the viscera health assessment index of the object to be evaluated, and δ 1 is the detoxification coefficient stored in the database, δ 2 is the regulation coefficient stored in the database, δ 1 +δ 2 = 1, and e is the natural constant.

[0010] Furthermore, the specific steps to obtain the meridian health assessment index of the object to be evaluated are as follows: Obtain the reference values of pulse pressure, pulse frequency, pulse intensity, and pulse wave propagation velocity of the object to be evaluated; and perform difference analysis on the reference values of pulse pressure, pulse frequency, pulse intensity, pulse wave propagation velocity, pulse pressure value, pulse frequency value, pulse intensity value, and pulse wave propagation velocity value of the object to be evaluated to obtain the pulse pressure difference, pulse frequency difference, pulse intensity difference, and pulse wave propagation velocity difference of the object to be evaluated, and perform standardization processing; comprehensively analyze the pulse pressure difference, pulse frequency difference, pulse intensity difference, and pulse wave propagation velocity difference of the object to be evaluated after standardization processing to obtain the meridian qi and blood flow assessment index of the object to be evaluated; obtain the reference temperature value of the object to be evaluated, and perform standardization processing with the conductivity value, impedance value, and temperature value of each meridian point of each meridian; comprehensively analyze the reference temperature value of the object to be evaluated after standardization processing and the conductivity value, impedance value, and temperature value of each meridian point of each meridian to obtain the meridian patency assessment index of the object to be evaluated; and comprehensively analyze the meridian qi and blood flow assessment index and meridian patency assessment index of the object to be evaluated to obtain the meridian health assessment index of the object to be evaluated.

[0011] Furthermore, the formulas for calculating the meridian qi and blood flow assessment index, meridian patency assessment index, and meridian health assessment index of the object to be evaluated are as follows: where, HmL is the meridian qi and blood flow assessment index of the object to be evaluated, MyC′ is the pulse pressure difference of the object to be evaluated after standardization processing, and φ 1 is the pulse pressure coefficient stored in the database, MpC′ is the pulse frequency difference of the object to be evaluated after standardization processing, and φ 2 is the pulse frequency coefficient stored in the database, MqC′ is the pulse intensity difference of the object to be evaluated after standardization processing, and φ 3 is the pulse intensity coefficient stored in the database, MsC′ is the pulse wave propagation velocity difference of the object to be evaluated after standardization processing, and φ 4is the propagation speed coefficient stored in the database, φ 1 + φ 2 + φ 3 + φ 4 = 1, where e is the natural constant, HmT is the meridian patency assessment index of the object to be evaluated, DaL′ ij is the conductivity value of the j-th meridian point on the i-th meridian of the object to be evaluated after standardization, is the conductance coefficient stored in the database, DzK′ ij is the impedance value of the j-th meridian point on the i-th meridian of the object to be evaluated after standardization, is the impedance coefficient stored in the database, WdZ′ ij is the temperature value of the j-th meridian point on the i-th meridian of the object to be evaluated after standardization, WdC′ is the temperature reference value of the object to be evaluated after standardization, is the temperature coefficient stored in the database, HkM is the meridian health assessment index of the object to be evaluated, η 1 is the qi and blood flow coefficient stored in the database, η 2 is the patency coefficient stored in the database, η 1 + η 2 = 1, i = 1, 2, 3, …, i 0 ,i 0 is the number of meridians, j = 1, 2, 3, …, j 0 ,j 0 is the number of meridian points.

[0012] Furthermore, the formula for calculating the comprehensive viscera-meridian health assessment index of the object to be evaluated is as follows: where ZhH is the comprehensive viscera-meridian health assessment index of the object to be evaluated, FzH is the viscera health assessment index of the object to be evaluated, ω 1 is the viscera coefficient stored in the database, HkM is the meridian health assessment index of the object to be evaluated, ω 2 is the meridian coefficient stored in the database, ω 1 + ω 2 = 1, where e is the natural constant.

[0013] Further, the specific steps to obtain the energy health assessment index of the object to be evaluated are as follows: normalize the oxygen consumption value, carbon dioxide production value, blood oxygen saturation value, and muscle mass value of the object to be evaluated; comprehensively analyze the normalized oxygen consumption value, carbon dioxide production value, blood oxygen saturation value, and muscle mass value of the object to be evaluated to obtain the energy metabolism assessment index of the object to be evaluated; obtain the reference values of body water content, blood glucose content, and free fatty acid content of the object to be evaluated, and comprehensively analyze them in combination with the body water content value, blood glucose content value, and free fatty acid content value to obtain the energy storage assessment index of the object to be evaluated; and comprehensively analyze the energy metabolism assessment index and energy storage assessment index of the object to be evaluated to obtain the energy health assessment index of the object to be evaluated.

[0014] Further, the formulas for calculating the energy metabolism assessment index, energy storage assessment index, and energy health assessment index of the object to be evaluated are as follows:

[0015] Among them, HxD is the energy metabolism assessment index of the object to be evaluated, EyH′ is the carbon dioxide production value of the object to be evaluated after normalization, YqH′ is the oxygen consumption value of the object to be evaluated after normalization, λ 1 is the basic coefficient stored in the database, XyB′ is the blood oxygen saturation value of the object to be evaluated after normalization, λ 2 is the blood oxygen coefficient stored in the database, HrZ′ is the muscle mass value of the object to be evaluated after normalization, λ 3 is the mass coefficient stored in the database, λ 1 +λ 2 +λ 3 = 1, HxN is the energy storage assessment index of the object to be evaluated, JsF is the body water content value of the object to be evaluated, SfC is the reference value of the body water content of the object to be evaluated, μ 1 is the water coefficient stored in the database, HxT is the blood glucose content value of the object to be evaluated, XtC is the reference value of the blood glucose content of the object to be evaluated, μ 2 is the blood glucose coefficient stored in the database, HzF is the free fatty acid content value of the object to be evaluated, ZfC is the reference value of the free fatty acid content of the object to be evaluated, μ 3 is the fat coefficient stored in the database, μ 1 +μ 2 +μ 3 = 1, e is the natural constant, HxK is the energy health assessment index of the object to be evaluated, θ 1 is the metabolism coefficient stored in the database, θ 2 is the storage coefficient stored in the database, θ 1 +θ 2 = 1.

[0016] Further, the specific steps for taking health management measures based on the corresponding judgment and analysis results are as follows: If the comprehensive health assessment index of the viscera and meridians of the object to be evaluated is lower than or equal to the preset comprehensive health assessment threshold of the viscera and meridians, a first viscera and meridian health management suggestion is sent to the object to be evaluated; if the comprehensive health assessment index of the viscera and meridians of the object to be evaluated is higher than the preset comprehensive health assessment threshold of the viscera and meridians, a second viscera and meridian health management suggestion is sent to the object to be evaluated; if the energy health assessment index of the object to be evaluated is lower than the lower limit of the preset energy health assessment threshold range, a first energy health management suggestion is sent to the object to be evaluated; if the energy health assessment index of the object to be evaluated is within the preset energy health assessment threshold range, a second energy health management suggestion is sent to the object to be evaluated; if the energy health assessment index of the object to be evaluated is higher than the upper limit of the preset energy health assessment threshold range, a third energy health management suggestion is sent to the object to be evaluated.

[0017] The present invention has the following beneficial effects:

[0018] (1) The evaluation method based on multi-parameter viscera and meridian functions and human energy levels analyzes the state data of viscera and meridians and energy states, thereby providing a more comprehensive health assessment, considering the correlation between viscera and meridians, and then realizing a more comprehensive health status diagnosis of the object to be evaluated, effectively improving the accuracy and reliability of health assessment, avoiding misjudgment caused by one-sided analysis, and precisely formulating personalized health management strategies.

[0019] (2) The evaluation method based on multi-parameter viscera and meridian functions and human energy levels comprehensively analyzes the viscera health assessment index, meridian health assessment index, and energy health assessment index of the object to be evaluated, thereby formulating a personalized health management plan for the evaluation object. The evaluation results can reveal the weak links of the evaluation object in terms of viscera, meridians, and energy levels, providing a scientific basis for health intervention, realizing refined health intervention, and enhancing the pertinence and effect of health management.

[0020] (3) The evaluation method based on multi-parameter viscera and meridian functions and human energy levels compares the comprehensive health assessment index of viscera and meridians and the energy health assessment index with the preset thresholds to determine whether the health status of the evaluation object is abnormal, enabling quick evaluation results and corresponding health management measures to be taken, thereby improving the overall health level.

[0021] Of course, it is not necessary for any product implementing the present invention to achieve all the above-mentioned advantages simultaneously. Description of the Drawings

[0022] Figure 1This is a flowchart of the evaluation method based on multi-parameter zang-fu organs meridian functions and human energy levels of the present invention.

[0023] Figure 2 This is a flowchart of the steps for obtaining the zang-fu organs health evaluation indexes of the object to be evaluated in the evaluation method based on multi-parameter zang-fu organs meridian functions and human energy levels of the present invention.

[0024] Figure 3 This is a flowchart of the steps for obtaining the meridian health evaluation indexes of the object to be evaluated in the evaluation method based on multi-parameter zang-fu organs meridian functions and human energy levels of the present invention. Specific embodiments

[0025] The problems in the embodiments of this application have the following general idea:

[0026] First, obtain the zang-fu organs state data, meridian state data, and energy state data of the object to be evaluated, and perform data analysis on them respectively to obtain the zang-fu organs health evaluation indexes, meridian health evaluation indexes, and energy health evaluation indexes of the object to be evaluated. Then, perform comprehensive analysis on the zang-fu organs health evaluation indexes and meridian health evaluation indexes to obtain the comprehensive zang-fu organs meridian health evaluation indexes. Finally, perform judgment analysis on the comprehensive zang-fu organs meridian health evaluation indexes and energy health evaluation indexes of the object to be evaluated respectively with the preset comprehensive zang-fu organs meridian health evaluation threshold and energy health evaluation threshold range, and take health management measures based on the corresponding judgment analysis results.

[0027] Please refer to Figure 1 ., an embodiment of the present invention provides a technical solution: an evaluation method based on multi-parameter zang-fu organs meridian functions and human energy levels, including the following steps: obtain the zang-fu organs meridian state data and energy state data of the object to be evaluated, and the zang-fu organs meridian state data includes zang-fu organs state data and meridian state data; perform data analysis on the zang-fu organs meridian state data and energy state data of the object to be evaluated respectively to obtain the zang-fu organs health evaluation indexes, meridian health evaluation indexes, and energy health evaluation indexes of the object to be evaluated; and perform comprehensive analysis on the zang-fu organs health evaluation indexes and meridian health evaluation indexes of the object to be evaluated to obtain the comprehensive zang-fu organs meridian health evaluation indexes of the object to be evaluated; perform judgment analysis on the comprehensive zang-fu organs meridian health evaluation indexes and energy health evaluation indexes of the object to be evaluated respectively with the preset comprehensive zang-fu organs meridian health evaluation threshold and energy health evaluation threshold range, and take health management measures based on the corresponding judgment analysis results.

[0028] The visceral state data include the values of liver enzyme content, creatinine content, urea nitrogen content, plasma heavy metal content, cortisol content, blood electrolyte content, and norepinephrine content. The meridian state data include the values of pulse pressure, pulse frequency, pulse intensity, pulse wave propagation velocity, and the conductivity values, impedance values, and temperature values of each meridian point of each meridian. The energy state data include the values of oxygen consumption, carbon dioxide production, blood oxygen saturation, muscle mass, body water content, blood glucose content, and free fatty acid content.

[0029] Among them, the value of liver enzyme content is the mean of the total content values of AST (aspartate aminotransferase) and ALT (alanine aminotransferase) in the blood measured each time within one minute during the evaluation. An excessive value of liver enzyme content indicates liver damage or inflammation, suggesting a decline in the liver's detoxification function and an inability to effectively metabolize toxins. A low value of liver enzyme content indicates a weakened liver metabolism function and a lack of effective metabolic enzymes to participate in detoxification. Moreover, the AST and ALT measured each time can be obtained through the sampling method, that is, sampling venous blood and using an automatic biochemical analyzer for measurement, and uploading the measurement results to the database.

[0030] The value of creatinine content is the mean of the creatinine content values in the blood measured each time within one minute during the evaluation. Creatinine is a compound produced during the energy generation process of muscles and is generated by the metabolism of phosphocreatine. An increase in creatinine content indicates kidney function damage, resulting in a decline in the ability to excrete toxins. A low creatinine level reflects a weakening of the kidneys in excreting waste. Moreover, the creatinine content value measured each time can be obtained through the sampling method, that is, sampling blood and using an automatic biochemical analyzer for measurement, and uploading the measurement results to the database.

[0031] The value of urea nitrogen content is the mean of the urea content in the blood measured each time within one minute during the evaluation. An excessive urea nitrogen content indicates poor kidney function and difficulty in effectively clearing metabolic waste, that is, a decrease in the detoxification ability. A low urea nitrogen content indicates insufficient detoxification ability. Moreover, the urea nitrogen content value measured each time can be obtained through the sampling method, that is, sampling blood and using an automatic biochemical analyzer for measurement, and uploading the measurement results to the database.

[0032] The value of plasma heavy metal content is the mean of the total content of each heavy metal (including but not limited to lead, mercury, arsenic) in the blood measured each time within one minute during the evaluation. An excessive heavy metal content in the plasma means there is an accumulation of harmful substances in the body, leading to an increased burden on visceral detoxification and even causing organ damage. Moreover, the content of each heavy metal in the blood measured each time can be obtained through the sampling method, that is, sampling blood and using a mass spectrometer for measurement, and uploading the measurement results to the database.

[0033] The cortisol content value is the mean of the cortisol content values in the blood measured each time within one minute during the assessment. Cortisol is a steroid hormone secreted by the adrenal cortex. Excessive cortisol inhibits the immune function, thereby reducing the kidney's regulatory ability. Moreover, excessive cortisol weakens the immune system, thus reducing the kidney's regulatory ability. And the cortisol content value measured each time can be obtained by the sampling method, that is, sampling the blood and using an automatic biochemical analyzer for measurement, and uploading the measurement results to the database.

[0034] The blood electrolyte content value is the mean of the sum of the contents of each electrolyte (including but not limited to sodium, potassium, calcium, chloride ions, etc.) in the blood measured each time within one minute during the assessment. Abnormal changes in electrolyte levels will affect the normal regulatory functions of the internal organs. And the content of each electrolyte measured each time can be obtained by the sampling method, that is, sampling the blood and using an automatic biochemical analyzer for measurement, and uploading the measurement results to the database.

[0035] The norepinephrine content value is the mean of the norepinephrine content values in the blood measured each time within one minute during the assessment. Norepinephrine is a neurotransmitter and hormone secreted by the adrenal gland. Excessive or too low levels of norepinephrine will affect the regulation of the heart and blood vessels. And the norepinephrine content value measured each time can be obtained by the sampling method, that is, sampling the blood and using an automatic biochemical analyzer for measurement, and uploading the measurement results to the database.

[0036] The pulse pressure value: Pulse pressure is the mean of the difference between the systolic blood pressure and the diastolic blood pressure measured each time within one minute during the assessment (and the measurement position is the radial artery at the wrist), that is, pulse pressure value = systolic blood pressure - diastolic blood pressure. The systolic blood pressure is the highest blood pressure when the heart contracts, and the diastolic blood pressure is the lowest blood pressure when the heart relaxes. If the pulse pressure value is too large, it means that the flow of qi and blood in the meridians will be suppressed, resulting in insufficient qi and blood, and thus it is difficult to effectively nourish the meridians. On the contrary, the driving force of blood flow is insufficient. And the systolic blood pressure and diastolic blood pressure measured each time can be measured by an electronic sphygmomanometer, and the measurement results are uploaded to the database.

[0037] The pulse frequency value is the number of heartbeats within one minute during the assessment ((and the measurement position is the radial artery at the wrist)). If the pulse frequency is too fast, it means that the heart burden increases, the blood flows rapidly, and at the same time, the rapid flow of qi and blood makes it difficult for qi and blood to effectively nourish the meridians, resulting in insufficient meridian qi and blood supply. On the contrary, it means that the heart's blood pumping ability is weak, the blood flow speed slows down, and the qi and blood flow is not smooth, thus it is difficult to effectively nourish the meridians. And the pulse frequency value can be obtained by an electronic pulse meter.

[0038] The pulse intensity value is the average of the strength of each pulse beat measured per minute during the assessment (and the measurement location is the radial artery at the wrist). If the pulse intensity value is too high, it means that the qi and blood flow is too rapid, resulting in overactive meridian functions and discomfort. On the contrary, insufficient qi and blood supply leads to insufficient qi and blood flow in the meridians, and the pulse intensity value of each measurement can be obtained through a pulse wave monitor.

[0039] The pulse wave velocity value is the average of the velocity at which the pulse wave propagates in the arterial blood vessels measured per minute during the assessment (and the measurement location is the radial artery at the wrist). If the pulse wave velocity is too fast, it means that arteriosclerosis causes poor qi and blood flow and makes it difficult to effectively nourish the meridians. On the contrary, slow blood flow, qi stagnation and blood stasis lead to insufficient qi and blood supply in the meridians, making it difficult to effectively nourish the meridians. The pulse wave velocity value of each measurement can be obtained through a pressure sensor.

[0040] The conductivity value is the average of the current passing ability of each meridian point (specific locations or acupoints on the meridian, such as Hegu acupoint, Zusanli, and Jianjing acupoint) measured per minute during the assessment. The larger the conductivity value, the higher the tissue metabolic activity in that area, that is, the meridians are unobstructed. The conductivity value of each measurement can be measured by a bioelectrical impedance analyzer and the measurement results are uploaded to the database.

[0041] The impedance value is the average of the resistance degree of each meridian point to the current measured per minute during the assessment. A low impedance value means that the qi and blood are smooth in that area, the tissue is healthy, and it can conduct electrical signals better, that is, the meridians are unobstructed. The impedance value of each measurement can be measured by a traditional Chinese medicine meridian instrument and the measurement results are uploaded to the database.

[0042] The temperature value is the average of the local temperature of each meridian point measured per minute during the assessment. An excessively high temperature indicates that there is overactive metabolism at that meridian point, congestion exists, and the smoothness of the meridians is reduced. On the contrary, it means that cold and dampness accumulate or blood flow is slow, that is, the smoothness of the meridians is reduced. The temperature value of each measurement can be obtained through a thermosensitive sensor.

[0043] The oxygen consumption value is the amount of oxygen consumed per minute during the assessment in a certain state. Excessive oxygen consumption means abnormal metabolism. Due to reasons such as hyperthyroidism, the energy metabolism is too fast. On the contrary, it means a lower basal metabolism, and the oxygen consumption value can be measured by a portable oxygen analyzer and the measurement results are uploaded to the database.

[0044] The carbon dioxide output value is the amount of carbon dioxide excreted per minute during the assessment. Excessive carbon dioxide output means excessive carbohydrate metabolism, and the carbon dioxide output value can be measured by a gas analyzer and the measurement results are uploaded to the database.

[0045] The blood oxygen saturation value is the mean percentage of oxygen bound to hemoglobin in the blood for each measurement within one minute during the assessment. Too low a value can lead to an increase in the body's oxidative stress response, affecting metabolism. And the blood oxygen saturation value for each measurement can be measured by a pulse oximeter and the measurement results are uploaded to the database.

[0046] The muscle mass value is the mean total mass of the body muscles for each measurement within one minute during the assessment, mainly reflecting the mass of non-fat tissues in the body, including skeletal muscle, smooth muscle, etc. Too low a muscle mass may lead to a decline in physical fitness and a slowdown in metabolism. And the muscle mass value for each measurement can be measured by a body fat scale and the measurement results are uploaded to the database.

[0047] The body water content value is the mean percentage of the total amount of water contained in the human body (including intracellular water (which exists inside cells and usually accounts for about 2 / 3 of the total body water and is the basis for all metabolic processes within cells), extracellular water (which exists outside cells and includes parts such as blood, lymph, and interstitial fluid)) in the total body weight for each measurement within one minute during the assessment. The content of intracellular water and extracellular water for each measurement can be measured by a body composition analyzer and the measurement results are uploaded to the database, while the total body weight for each measurement can be measured by a weighing scale and the measurement results are uploaded to the database.

[0048] The blood glucose content value is the mean concentration of glucose in the blood for each measurement within one minute during the assessment, which can lead to excessive glycogen reserves. Excessive glycogen will be converted into fat. On the contrary, it indicates less glycogen reserves and the body will rely more on fat reserves. The blood glucose content value for each measurement can be measured by a blood glucose monitor and the measurement results are uploaded to the database.

[0049] The free fatty acid content value is the mean content value of free fatty acids in the blood for each measurement within one minute during the assessment. And free fatty acids are the products of the fat decomposition process, released from fat reserves into the blood in the form of providing energy for the body. A lower free fatty acid content value indicates that the body's fat reserves have not been fully mobilized, meaning the body relies on other energy sources (such as glycogen) to maintain metabolism. And the free fatty acid content value for each measurement can be obtained by sampling, that is, sampling the blood and using an automatic biochemical analyzer for measurement, and uploading the measurement results to the database.

[0050] Specifically, such as Figure 2As shown in the figure, the specific steps to obtain the viscera health assessment index of the object to be evaluated are as follows: Obtain the reference values of liver enzyme content, creatinine content, and urea nitrogen content of the object to be evaluated; perform normalization processing (i.e., unit removal) on the liver enzyme content value, creatinine content value, urea nitrogen content value, plasma heavy metal content value, and the reference values of liver enzyme content, creatinine content, and urea nitrogen content of the object to be evaluated; comprehensively analyze the normalized liver enzyme content value, creatinine content value, urea nitrogen content value, plasma heavy metal content value, and the reference values of liver enzyme content, creatinine content, and urea nitrogen content of the object to be evaluated to obtain the viscera detoxification function assessment index of the object to be evaluated; and obtain the reference values of cortisol content, blood electrolyte content, and norepinephrine content of the object to be evaluated, and comprehensively analyze them with the cortisol content value, blood electrolyte content value, and norepinephrine content value to obtain the viscera regulation function assessment index of the object to be evaluated; comprehensively analyze the viscera detoxification function assessment index and the viscera regulation function assessment index of the object to be evaluated to obtain the viscera health assessment index of the object to be evaluated.

[0051] Among them, the reference values of liver enzyme content, creatinine content, urea nitrogen content, cortisol content, blood electrolyte content, and norepinephrine content of the object to be evaluated can all be obtained from the health database in public health institutions (such as WHO, CDC, etc.).

[0052] The formulas for calculating the viscera detoxification function assessment index, viscera regulation function assessment index, and viscera health assessment index of the object to be evaluated are as follows: Among them, ZpD is the viscera detoxification function assessment index of the object to be evaluated, GmH′ is the liver enzyme content value of the object to be evaluated after normalization, GmK′ is the reference value of the liver enzyme content of the object to be evaluated after normalization, α 1 is the liver enzyme coefficient stored in the database, TgH′ is the creatinine content value of the object to be evaluated after normalization, TgK′ is the reference value of the creatinine content of the object to be evaluated after normalization, α 2 is the creatinine coefficient stored in the database, NsH′ is the urea nitrogen content value of the object to be evaluated after normalization, NsK′ is the reference value of the urea nitrogen content of the object to be evaluated after normalization, α 3 is the urea nitrogen coefficient stored in the database, XtZ′ is the plasma heavy metal content value of the object to be evaluated after normalization, α 4 is the heavy metal coefficient stored in the database, α 1 +α 2 +α 3 +α 4= 1, where HtD is the evaluation index of the visceral regulation function of the object to be evaluated, PzC is the cortisol content value of the object to be evaluated, PzK is the reference value of the cortisol content of the object to be evaluated, and β 1 is the cortisol coefficient stored in the database, DtZ is the blood electrolyte content value of the object to be evaluated, DtC is the reference value of the blood electrolyte content of the object to be evaluated, and β 2 is the electrolyte coefficient stored in the database, QtS is the norepinephrine content value of the object to be evaluated, QtC is the reference value of the norepinephrine content of the object to be evaluated, and β 3 is the norepinephrine coefficient stored in the database, and β 1 + β 2 + β 3 = 1, where FzH is the evaluation index of the visceral health of the object to be evaluated, and δ 1 is the detoxification coefficient stored in the database, and δ 2 is the regulation coefficient stored in the database, and δ 1 + δ 2 = 1, where e is the natural constant, which takes the value of 2.71 in this implementation example.

[0053] It should be noted that: α 1 , α 2 , α 3 , α 4 The specific acquisition process is as follows: Read the reference values of liver enzyme content, creatinine content, urea nitrogen content, and plasma heavy metal content of the object to be evaluated, perform normalization processing to obtain the normalized reference values of liver enzyme content, creatinine content, urea nitrogen content, and plasma heavy metal content of the object to be evaluated, and perform summation analysis to obtain the detoxification sum value. Then, perform ratio analysis on the normalized reference values of liver enzyme content, creatinine content, urea nitrogen content, and plasma heavy metal content of the object to be evaluated with the detoxification sum value respectively, and use the ratio results as the corresponding coefficients.

[0054] β 1 , β 2 , β 3 The specific acquisition process is as follows: Read the reference values of cortisol content, blood electrolyte content, and norepinephrine content of the object to be evaluated, perform normalization processing to obtain the normalized reference values of cortisol content, blood electrolyte content, and norepinephrine content of the object to be evaluated, and perform summation analysis to obtain the regulation sum value. Then, perform ratio analysis on the normalized reference values of cortisol content, blood electrolyte content, and norepinephrine content of the object to be evaluated with the regulation sum value respectively, and use the ratio results as the corresponding coefficients.

[0055] δ 1 , δ2 The specific acquisition process is as follows: Read the evaluation indicators of the viscera detoxification function and the viscera regulation function of the object to be evaluated (both the evaluation indicators of the viscera detoxification function and the viscera regulation function are dimensionless indicators and can be directly calculated here), perform summation analysis to obtain the health sum value, and perform ratio analysis on the evaluation indicators of the viscera detoxification function and the viscera regulation function of the object to be evaluated respectively with the health sum value, and use the ratio results as the corresponding coefficients.

[0056] In this implementation plan, by comprehensively analyzing the viscera detoxification function and the regulation function, it covers multiple important physiological indicators such as liver enzymes, creatinine, urea nitrogen, plasma heavy metals, cortisol, norepinephrine, etc., provides a multi-dimensional health assessment, and can accurately reflect the viscera health status of the object to be evaluated, thereby avoiding the defect of one-sidedness, ensuring the accuracy and scientific nature of the evaluation results. Secondly, through normalization processing and ratio analysis, the coefficients of each indicator can be calculated according to the specific data of the individual, and then personalized health assessment can be realized, effectively avoiding the deviation in standardized assessment, and improving the accuracy of the assessment. Finally, by referring to the reference data of health institutions such as WHO and CDC, combining public health data with individual health data provides authoritative data support for the assessment, thus enhancing the credibility of the assessment results.

[0057] Specifically, as Figure 3 shown, the specific steps to obtain the meridian health assessment indicators of the object to be evaluated are as follows: Obtain the reference values of pulse pressure, pulse frequency, pulse intensity, and pulse wave propagation velocity of the object to be evaluated; and perform difference analysis on the reference values of pulse pressure, pulse frequency, pulse intensity, and pulse wave propagation velocity of the object to be evaluated, as well as the pulse pressure value, pulse frequency value, pulse intensity value, and pulse wave propagation velocity value, to obtain the pulse pressure difference, pulse frequency difference, pulse intensity difference, and pulse wave propagation velocity difference of the object to be evaluated, and perform normalization processing (i.e., removing the unit); perform comprehensive analysis on the pulse pressure difference, pulse frequency difference, pulse intensity difference, and pulse wave propagation velocity difference of the object to be evaluated after normalization processing to obtain the meridian qi and blood flow assessment indicators of the object to be evaluated; obtain the reference value of the temperature of the object to be evaluated, and perform normalization processing (i.e., removing the unit) with the conductivity value, impedance value, and temperature value of each meridian point of each meridian; perform comprehensive analysis on the reference value of the temperature of the object to be evaluated after normalization processing and the conductivity value, impedance value, and temperature value of each meridian point of each meridian to obtain the meridian patency assessment indicators of the object to be evaluated; and perform comprehensive analysis on the meridian qi and blood flow assessment indicators and the meridian patency assessment indicators of the object to be evaluated to obtain the meridian health assessment indicators of the object to be evaluated.

[0058] Among them, the reference values of pulse pressure, pulse frequency, pulse intensity, pulse wave propagation speed, and temperature of the object to be evaluated can all be obtained from the health databases in public health institutions (such as WHO, CDC, etc.).

[0059] The formulas for calculating the meridian qi and blood flow evaluation index, meridian patency evaluation index, and meridian health evaluation index of the object to be evaluated are as follows: Among them, HmL is the meridian qi and blood flow evaluation index of the object to be evaluated, MyC′ is the pulse pressure difference of the object to be evaluated after standardized processing, φ 1 is the pulse pressure coefficient stored in the database, MpC′ is the pulse frequency difference of the object to be evaluated after standardized processing, φ 2 is the pulse frequency coefficient stored in the database, MqC′ is the pulse intensity difference of the object to be evaluated after standardized processing, φ 3 is the pulse intensity coefficient stored in the database, MsC′ is the pulse wave propagation speed difference of the object to be evaluated after standardized processing, φ 4 is the propagation speed coefficient stored in the database, φ 1 +φ 2 +φ 3 +φ 4 = 1, e is the natural constant, with a value of 2.71 in this embodiment, HmT is the meridian patency evaluation index of the object to be evaluated, DaL′ ij is the conductivity value of the j-th meridian point of the i-th meridian of the object to be evaluated after standardized processing, is the conductance coefficient stored in the database, DzK′ ij is the impedance value of the j-th meridian point of the i-th meridian of the object to be evaluated after standardized processing, is the impedance coefficient stored in the database, WdZ′ ij is the temperature value of the j-th meridian point of the i-th meridian of the object to be evaluated after standardized processing, WdC′ is the temperature reference value of the object to be evaluated after standardized processing, is the temperature coefficient stored in the database, HkM is the meridian health evaluation index of the object to be evaluated, η 1 is the qi and blood flow coefficient stored in the database, η 2 is the patency coefficient stored in the database, η 1 +η 2 = 1, i = 1, 2, 3, …, i 0 ,i 0 is the number of meridians, j = 1, 2, 3, …, j 0 ,j 0 is the number of meridian points.

[0060] It should be noted that φ1 、 φ 2 、 φ 3 、 φ 4 The specific acquisition process is as follows: Read the pulse pressure reference value, pulse frequency reference value, pulse intensity reference value, and pulse wave propagation velocity reference value of the object to be evaluated, and perform standardization processing. Based on the results of the standardization processing, perform summation analysis to obtain the flow sum value. Perform ratio analysis on the standardized pulse pressure reference value, pulse frequency reference value, pulse intensity reference value, and pulse wave propagation velocity reference value of the object to be evaluated with the flow sum value respectively, and use the ratio results as the corresponding coefficients.

[0061] The specific acquisition process is as follows: Read the conductivity value, impedance value, and temperature value of each meridian point of each meridian of the object to be evaluated, perform mean value analysis to obtain the conductivity mean value, impedance mean value, and temperature mean value of the object to be evaluated, and perform standardization processing. Based on the results of the standardization processing, perform sum analysis on them to obtain the patency sum value. Perform ratio analysis on the standardized conductivity mean value, impedance mean value, and temperature mean value of the object to be evaluated with the patency sum value respectively, and use the ratio results as the corresponding coefficients.

[0062] η 1 、 η 2 The specific acquisition process is as follows: Read the meridian qi and blood flow evaluation index and meridian patency evaluation index of the object to be evaluated (both the meridian qi and blood flow evaluation index and the meridian patency evaluation index are dimensionless indexes and can be directly calculated here), perform summation analysis to obtain the meridian health sum value. Perform ratio analysis on the meridian qi and blood flow evaluation index and meridian patency evaluation index of the object to be evaluated with the meridian health sum value respectively, and use the ratio results as the corresponding coefficients.

[0063] In this implementation scheme, by comprehensively analyzing multiple blood circulation indicators such as pulse pressure, pulse frequency, pulse intensity, and pulse wave velocity, the meridians and collaterals qi and blood flow status of the object to be evaluated can be comprehensively reflected, and then its meridians and collaterals health can be better evaluated. Through difference analysis and standardization processing, unit differences and other external interferences are eliminated, making the data more accurate, and avoiding misjudgments that may be caused by relying on a single indicator in traditional methods. Secondly, not only conventional physiological indicators such as pulse pressure and pulse are analyzed, but also physical parameters closely related to meridians and collaterals health such as temperature, impedance, and conductivity are added. Through standardization processing and comprehensive analysis, data in different dimensions can be effectively integrated, thus comprehensively reflecting the smoothness of an individual's meridians and collaterals. At the same time, the proportion analysis method is used to obtain a fine coefficient, providing a multi-dimensional comprehensive evaluation, and then accurately grasping the meridians and collaterals health. Then, by comparing with the reference values stored in the database and combining the individual's physiological characteristics, customized health indicators applicable to each object to be evaluated are obtained. In addition, through data analysis and coefficient adjustment at different meridian points, the health differences of different individuals can be flexibly addressed, so as to achieve personalized health management. Finally, through mathematical processing methods such as standardization, normalization, and difference analysis, data such as pulse pressure and pulse frequency are converted into dimensionless indicators, eliminating the unit and scale differences of the data, making the evaluation results more accurate and reliable.

[0064] Specifically, the formula for calculating the comprehensive health evaluation index of the zang-fu organs and meridians of the object to be evaluated is as follows: Among them, ZhH is the comprehensive health evaluation index of the zang-fu organs and meridians of the object to be evaluated, FzH is the health evaluation index of the zang-fu organs of the object to be evaluated, ω 1 is the zang-fu coefficient stored in the database, HkM is the health evaluation index of the meridians and collaterals of the object to be evaluated, ω 2 is the meridian coefficient stored in the database, ω 1 +ω 2 = 1, e is the natural constant, and its value is 2.71 in this implementation example.

[0065] It should be explained that the specific acquisition process of ω 1 and ω 2 is as follows: Read the health evaluation index of the zang-fu organs and the health evaluation index of the meridians and collaterals of the object to be evaluated (since both the health evaluation index of the zang-fu organs and the health evaluation index of the meridians and collaterals are dimensionless values, calculations can be directly performed here), and perform summation analysis to obtain the health sum value. Then, perform proportion analysis on the health evaluation index of the zang-fu organs and the health evaluation index of the meridians and collaterals of the object to be evaluated respectively with the health sum value, and use the proportion results as the corresponding coefficients.

[0066] And the Tanh function is the hyperbolic tangent function, with the domain of all real numbers and the range of (-1, 1), and its expression is: Among them, Tanh(X) is the hyperbolic tangent function, and e is the natural constant, which takes the value of 2.71 in this implementation example.

[0067] In this implementation plan, by combining the visceral health assessment index and the meridian health assessment index, the overall health status of the object to be evaluated can be comprehensively measured. The viscera and meridians are two important dimensions in traditional Chinese medicine. They are interconnected and jointly affect the health of individuals. Therefore, by comprehensively analyzing the visceral health assessment index and the meridian health assessment index, a comprehensive and accurate health assessment can be achieved. Moreover, since both the visceral health assessment index and the meridian health assessment index are dimensionless values, the data is not affected by units and scales, thus avoiding the problem of inconsistency between different data sources, ensuring that the assessment results are more objective, reducing errors, and further improving the accuracy of health assessment. Secondly, by using the visceral coefficient and the meridian coefficient, a proportion analysis of the health indicators is carried out, so as to provide personalized coefficients for each evaluation object, making the health assessment results more in line with the actual needs and capable of adapting to the differences of different individuals.

[0068] Specifically, the specific steps to obtain the energy health assessment index of the object to be evaluated are as follows: normalize the oxygen consumption value, carbon dioxide output value, blood oxygen saturation value, and muscle mass value of the object to be evaluated (i.e., remove the unit); comprehensively analyze the normalized oxygen consumption value, carbon dioxide output value, blood oxygen saturation value, and muscle mass value of the object to be evaluated to obtain the energy metabolism assessment index of the object to be evaluated; obtain the reference values of body water content, blood glucose content, and free fatty acid content of the object to be evaluated, and comprehensively analyze them in combination with the body water content value, blood glucose content value, and free fatty acid content value to obtain the energy storage assessment index of the object to be evaluated; and comprehensively analyze the energy metabolism assessment index and the energy storage assessment index of the object to be evaluated to obtain the energy health assessment index of the object to be evaluated.

[0069] Among them, the reference values of body water content, blood glucose content, and free fatty acid content of the object to be evaluated can all be obtained from the health databases in public health institutions (such as WHO, CDC, etc.).

[0070] The formulas for calculating the energy metabolism assessment index, energy storage assessment index, and energy health assessment index of the object to be evaluated are as follows: Among them, HxD is the energy metabolism assessment index of the object to be evaluated, EyH′ is the carbon dioxide output value of the object to be evaluated after normalization, YqH′ is the oxygen consumption value of the object to be evaluated after normalization, λ 1 is the basic coefficient stored in the database, XyB′ is the blood oxygen saturation value of the object to be evaluated after normalization, λ 2HrZ is the blood oxygen coefficient stored in the database, HrZ′ is the muscle mass value of the object to be evaluated after normalization, and λ 3 is the mass coefficient stored in the database, and λ 1 +λ 2 +λ 3 = 1, HxN is the energy storage evaluation index of the object to be evaluated, JsF is the body water content value of the object to be evaluated, SfC is the reference value of the body water content of the object to be evaluated, and μ 1 is the water coefficient stored in the database, HxT is the blood glucose content value of the object to be evaluated, XtC is the reference value of the blood glucose content of the object to be evaluated, and μ 2 is the blood glucose coefficient stored in the database, HzF is the free fatty acid content value of the object to be evaluated, ZfC is the reference value of the free fatty acid content of the object to be evaluated, and μ 3 is the fat coefficient stored in the database, and μ 1 +μ 2 +μ 3 = 1, e is the natural constant, which takes the value of 2.71 in this embodiment, HxK is the energy health evaluation index of the object to be evaluated, and θ 1 is the metabolic coefficient stored in the database, and θ 2 is the storage coefficient stored in the database, and θ 1 +θ 2 = 1.

[0071] It should be noted that the specific acquisition process of λ 1 , λ 2 , λ 3 is as follows: Read the oxygen consumption value and carbon dioxide output value of the object to be evaluated for ratio analysis to obtain the respiratory quotient of the object to be evaluated, and read and normalize the blood oxygen saturation value and muscle mass value of the object to be evaluated to obtain the respiratory quotient, blood oxygen saturation value, and muscle mass value of the object to be evaluated after normalization, and perform summation analysis to obtain the metabolic sum value. Perform ratio analysis on the respiratory quotient, blood oxygen saturation value, and muscle mass value of the object to be evaluated after normalization with the metabolic sum value respectively, and use the ratio results as the corresponding coefficients.

[0072] μ 1 、μ 2 、μ 3The specific acquisition process is as follows: Read the reference values of body water content, blood glucose content, and free fatty acid content of the object to be evaluated, and perform normalization processing to obtain the reference values of body water content, blood glucose content, and free fatty acid content of the object to be evaluated after normalization processing. Then perform summation analysis to obtain the energy storage sum value. Perform ratio analysis on the reference values of body water content, blood glucose content, and free fatty acid content of the object to be evaluated after normalization processing with the energy storage sum value respectively, and use the ratio results as the corresponding coefficients.

[0073] θ 1 、θ 2 The specific acquisition process is as follows: Read the energy metabolism evaluation index and energy storage evaluation index of the object to be evaluated (since the energy metabolism evaluation index and energy storage evaluation index are dimensionless values, calculations can be directly performed here), and perform summation analysis to obtain the energy sum value. Perform ratio analysis on the energy metabolism evaluation index and energy storage evaluation index of the object to be evaluated with the energy sum value respectively, and use the ratio results as the corresponding coefficients.

[0074] The specific embodiments for calculating the energy health evaluation index of the object to be evaluated are as follows. The following existing data:

[0075] The oxygen consumption value of the object to be evaluated (unit: mL / min): 289.00.

[0076] The carbon dioxide production value of the object to be evaluated (unit: mL / min): 276.00.

[0077] The blood oxygen saturation value of the object to be evaluated: 0.98.

[0078] The muscle mass value of the object to be evaluated (unit: kg): 35.

[0079] The body water content value of the object to be evaluated: 0.63.

[0080] The blood glucose content value of the object to be evaluated (unit: mg / dL): 95.00.

[0081] The free fatty acid content value of the object to be evaluated (unit: mmol / L): 0.25.

[0082] The reference value of body water content of the object to be evaluated: 0.60.

[0083] The reference value of blood glucose content of the object to be evaluated: 85.00.

[0084] The reference value of free fatty acid content of the object to be evaluated (unit: mmol / L): 0.20.

[0085] The oxygen consumption value of the object to be evaluated after normalization is: 0.68.

[0086] The carbon dioxide output value of the object to be evaluated after normalization is: 0.64.

[0087] The blood oxygen saturation value of the object to be evaluated after normalization is: 0.57.

[0088] The muscle mass value of the object to be evaluated after normalization is: 0.62.

[0089] The basic coefficient stored in the database is approximately: 0.40.

[0090] The blood oxygen coefficient stored in the database is approximately: 0.28.

[0091] The mass coefficient stored in the database is approximately: 0.32.

[0092] The moisture coefficient stored in the database is approximately: 0.24.

[0093] The blood glucose coefficient stored in the database is approximately: 0.31.

[0094] The fat coefficient stored in the database is approximately: 0.45.

[0095] The metabolic coefficient stored in the database is approximately: 0.52.

[0096] The storage coefficient stored in the database is approximately: 0.48.

[0097] Substitute the above data into the formulas of the energy metabolism evaluation index, energy storage evaluation index, and energy health evaluation index of the object to be evaluated respectively for calculation, and obtain:

[0098] The energy metabolism evaluation index of the object to be evaluated = 0.40 * (0.68 / 0.64) + 0.28 * 1 / 2 0.57 + 0.32 * 1 / 2 0.62 ≈ 0.89.

[0099] The energy storage evaluation index of the object to be evaluated = 1 / (2.71 0.24 *(|0.63-0.60| / 0.60)+0.31*(|95-85| / 85)+0.45*(|0.25-0.20| / 0.20) ) ≈ 0.85.

[0100] The energy health evaluation index of the object to be evaluated = Tanh((0.52 * 0.89 + 0.48 * 0.85) / (2.71 - 1)) ≈ 0.47.

[0101] In this implementation plan, by combining the energy metabolism assessment indicators with the energy storage assessment indicators, the energy health status of the object to be evaluated is comprehensively evaluated. The metabolic assessment focuses on energy metabolism-related indicators such as oxygen consumption, carbon dioxide output, blood oxygen saturation, and muscle mass, while the energy storage assessment focuses on analyzing energy reserve-related factors such as body water content, blood glucose content, and free fatty acids, and conducts comprehensive analysis respectively to accurately reflect an individual's energy utilization and storage situation, thereby helping to better understand the overall health status of the individual. Secondly, through normalization (unit elimination), the unit differences between different indicators are eliminated, enabling different types of health data to be directly compared and analyzed, thus improving the consistency and accuracy of the assessment results. In addition, through ratio analysis of the normalized data, personalized coefficients are obtained and dynamically adjusted according to the actual health status, physical characteristics, etc. of the object to be evaluated, so as to ensure that the health assessment results of each individual are more targeted and accurate.

[0102] Specifically, the specific steps for taking health management measures based on the corresponding judgment and analysis results are as follows: If the comprehensive health assessment index of the viscera and meridians of the object to be evaluated is lower than or equal to the preset comprehensive health assessment threshold of the viscera and meridians, a first viscera and meridian health management suggestion will be sent to the object to be evaluated, that is, to adjust the living habits (increase nutritious foods, such as high-protein, vitamin- and mineral-rich foods, to enhance the functions of the viscera. According to traditional Chinese medicine theory, dietary therapy can help regulate the qi and blood and the balance of yin and yang of the viscera. For example, people with weak spleens and stomachs can increase foods that warm and tonify the spleen and stomach, such as Chinese yams, red dates, longans, etc.), and regulate the viscera and meridians (that is, adopt traditional Chinese medicine regulation methods such as acupuncture, massage, cupping, and scraping to specifically regulate the weakness or disharmony of the viscera. For example, for people with weak spleens or liver qi stagnation, use acupuncture or massage to stimulate the corresponding meridians to help dredge qi and blood and adjust the functions of the viscera); If the comprehensive health assessment index of the viscera and meridians of the object to be evaluated is higher than the preset comprehensive health assessment threshold of the viscera and meridians, a second viscera and meridian health management suggestion will be sent to the object to be evaluated, that is, to maintain the current health status and conduct regular examinations and maintain health monitoring (that is, regularly conduct health examinations of the viscera and meridians to understand the changes in the functions of the viscera and the status of the meridians and promptly detect any possible health risks); If the energy health assessment index of the object to be evaluated is lower than the lower limit of the preset energy health assessment threshold range (that is, the minimum value of the energy health assessment threshold range), a first energy health management suggestion will be sent to the object to be evaluated, that is, to carry out energy supplementation and recovery (that is, take measures to supplement energy, such as increasing high-quality sleep and improving diet, for example, increasing high-energy foods or supplementing nutritional supplements to help restore the body's energy balance), and conduct moderate aerobic exercises, such as walking, yoga, etc., to promote qi and blood circulation and metabolism and improve the overall energy level; If the energy health assessment index of the object to be evaluated is within the preset energy health assessment threshold range, a second energy health management suggestion will be sent to the object to be evaluated, that is, to maintain energy balance (that is, continue to maintain the current living and health habits to stabilize the body's energy level); If the energy health assessment index of the object to be evaluated is higher than the upper limit of the preset energy health assessment threshold range (that is, the maximum value of the energy health assessment threshold range), a third energy health management suggestion will be sent to the object to be evaluated, that is, to reduce energy consumption (that is, adjust daily activities and exercise volume, avoid excessive energy consumption, and reduce high-intensity physical activities or mental stress), and increase rest time (that is, increase rest time to ensure sufficient recovery cycles and avoid excessive fatigue leading to excessive energy consumption).

[0103] In this implementation plan, corresponding health management measures are taken based on the specific health conditions of the object to be evaluated (comprehensive health assessment indicators of zang-fu organs and meridians and energy health assessment indicators), so as to achieve personalized health intervention, ensure the pertinence of health management, more effectively meet the actual needs of each individual, and promote overall health through means such as adjusting living habits, diet, exercise, and rest, so as to achieve the balanced adjustment of each system of the body, improve the body's self-healing ability, and thus achieve the long-term effectiveness and sustainability of health management. Secondly, by regularly monitoring health indicators, potential problems in aspects such as zang-fu organs, meridians, and energy levels can be discovered in a timely manner, so as to prevent the further deterioration of the health condition. In addition, through individualized diet, exercise, rest, and conditioning programs, the body's self-repair and regulation ability can be enhanced. Finally, real-time adjustment is made according to the health condition of the object to be evaluated, so as to ensure that the health management measures match the individual's health needs and avoid over-intervention or being too lenient.

[0104] In summary, this application has at least the following effects:

[0105] By analyzing the data of the state of zang-fu organs and meridians and the energy state data, a more comprehensive health assessment is provided, and the correlation between zang-fu organs and meridians is considered, so as to realize a more comprehensive diagnosis of the health state of the object to be evaluated, and then effectively improve the accuracy and reliability of the health assessment, avoid misjudgment caused by one-sided analysis, and accurately formulate personalized health management strategies.

[0106] By comprehensively analyzing the zang-fu organ health assessment indicators, meridian health assessment indicators, and energy health assessment indicators of the object to be evaluated, a personalized health management plan is formulated for the evaluation object, and the evaluation results can reveal the weak links of the evaluation object in terms of zang-fu organs, meridians, and energy levels, so as to provide a scientific basis for health intervention, and then realize refined health intervention and enhance the pertinence and effect of health management.

[0107] By comparing the comprehensive health assessment indicators of zang-fu organs and meridians and the energy health assessment indicators with the preset thresholds, it is judged whether the health state of the evaluation object is abnormal, so as to quickly obtain the evaluation results and take corresponding health management measures, and then improve the overall health level.

[0108] Although the preferred embodiments of the present invention have been described, those skilled in the art can make additional changes and modifications to these embodiments once they know the basic creative concept. Therefore, the appended claims are intended to be interpreted to include the preferred embodiments and all changes and modifications falling within the scope of the present invention.

[0109] Obviously, those skilled in the art can make various modifications and variations to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalent technologies, the present invention is also intended to include these modifications and variations.

Claims

1. An evaluation method based on multi-parameter viscera and meridian functions and human energy levels, characterized in that: The following steps are involved: Acquire the viscera and meridian state data and energy state data of the object to be evaluated, wherein the viscera and meridian state data includes viscera state data and meridian state data; Perform data analysis on the viscera and meridian status data and energy status data of the subject to be evaluated, and obtain the viscera health evaluation index, meridian health evaluation index, and energy health evaluation index of the subject to be evaluated; And conduct a comprehensive analysis on the viscera health assessment indexes and meridian health assessment indexes of the object to be assessed, and obtain the viscera and meridian comprehensive health assessment indexes of the object to be assessed; The comprehensive health assessment indexes of the zang-fu meridians and the energy health assessment indexes of the evaluated object are judged and analyzed with the preset comprehensive health assessment thresholds of the zang-fu meridians and the energy health assessment threshold ranges, and health management measures are taken based on the corresponding judgment and analysis results.

2. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 1, characterized in that: The viscera status data include liver enzyme content values, creatinine content values, urea nitrogen content values, plasma heavy metal content values, cortisol content values, blood electrolyte content values, and norepinephrine content values; the meridian status data include pulse pressure values, pulse frequency values, pulse strength values, pulse wave propagation speed values, and conductivity values, impedance values, and temperature values ​​of each meridian point of each meridian; the energy status data include oxygen consumption values, carbon dioxide output values, blood oxygen saturation values, muscle mass values, body water content values, blood sugar content values, and free fatty acid content values.

3. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 2, characterized in that: The specific steps for obtaining the organ health assessment index of the object to be assessed are as follows: Obtain reference values ​​of liver enzyme content, creatinine content, and urea nitrogen content of the subject to be evaluated; Normalize the liver enzyme content values, creatinine content values, urea nitrogen content values, plasma heavy metal content values, and liver enzyme content reference values, creatinine content reference values, and urea nitrogen content reference values ​​of the evaluated subjects; Comprehensively analyze the normalized liver enzyme content values, creatinine content values, urea nitrogen content values, plasma heavy metal content values, and liver enzyme content reference values, creatinine content reference values, and urea nitrogen content reference values ​​of the subject to be evaluated to obtain the viscera detoxification function evaluation index of the subject to be evaluated; And obtain the reference value of cortisol content, blood electrolyte content, and norepinephrine content of the subject to be evaluated, and conduct a comprehensive analysis with the cortisol content value, blood electrolyte content value, and norepinephrine content value to obtain the evaluation index of the viscera regulation function of the subject to be evaluated; Comprehensively analyze the evaluation indexes of the internal organs' detoxification function and the evaluation indexes of the internal organs' regulation function of the subject to be evaluated to obtain the evaluation indexes of the internal organs' health of the subject to be evaluated.

4. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 3, characterized in that: The formulas for calculating the evaluation index of the internal organs detoxification function, the evaluation index of the internal organs regulation function, and the evaluation index of the internal organs health of the object to be evaluated are as follows: Wherein, ZpD is the evaluation index of the viscera detoxification function of the object to be evaluated, GmH′ is the liver enzyme content value of the object to be evaluated after normalization, GmK′ is the reference value of the liver enzyme content of the object to be evaluated after normalization, α1 is the liver enzyme coefficient stored in the database, TgH′ is the creatinine content value of the object to be evaluated after normalization, TgK′ is the reference value of the creatinine content of the object to be evaluated after normalization, α2 is the creatinine coefficient stored in the database, NsH′ is the urea nitrogen content value of the object to be evaluated after normalization, NsK′ is the reference value of the urea nitrogen content of the object to be evaluated after normalization, α3 is the urea nitrogen coefficient stored in the database, XtZ′ is the plasma heavy metal content value of the object to be evaluated after normalization, α4 ​​is the heavy metal coefficient stored in the database, α1+α2+ α3+α4=1, HtD is the evaluation index of the viscera regulation function of the object to be evaluated, PzC is the cortisol content value of the object to be evaluated, PzK is the reference value of the cortisol content of the object to be evaluated, β1 is the cortisol coefficient stored in the database, DtZ is the blood electrolyte content value of the object to be evaluated, DtC is the reference value of the blood electrolyte content of the object to be evaluated, β2 is the electrolyte coefficient stored in the database, QtS is the norepinephrine content value of the object to be evaluated, QtC is the reference value of the norepinephrine content of the object to be evaluated, β3 is the norepinephrine coefficient stored in the database, β1+β2+β3=1, FzH is the viscera health evaluation index of the object to be evaluated, δ1 is the detoxification coefficient stored in the database, δ2 is the regulation coefficient stored in the database, δ1+δ2=1, and e is a natural constant.

5. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 2, characterized in that: The specific steps for obtaining the meridian health assessment index of the object to be assessed are as follows: Obtaining a pulse pressure reference value, a pulse frequency reference value, a pulse intensity reference value, and a pulse wave propagation velocity reference value of the subject to be evaluated; And perform difference analysis on the pulse pressure reference value, pulse frequency reference value, pulse intensity reference value, pulse wave propagation velocity reference value, pulse pressure value, pulse frequency value, pulse intensity value, and pulse wave propagation velocity value of the object to be evaluated, obtain the pulse pressure difference value, pulse frequency difference value, pulse intensity difference value, and pulse wave propagation velocity difference value of the object to be evaluated, and perform standardization processing; Comprehensively analyze the pulse pressure difference, pulse frequency difference, pulse intensity difference, and pulse wave propagation velocity difference of the subject to be evaluated after the standardized processing to obtain the meridian qi and blood flow evaluation index of the subject to be evaluated; Obtaining a temperature reference value of the object to be evaluated, and performing standardization processing with the conductivity value, impedance value, and temperature value of each meridian point of each meridian; Comprehensively analyze the standardized temperature reference value of the object to be evaluated and the conductivity value, impedance value, and temperature value of each meridian point of each meridian to obtain the meridian patency evaluation index of the object to be evaluated; The meridian qi and blood flow assessment index and meridian patency assessment index of the subject to be assessed are comprehensively analyzed to obtain the meridian health assessment index of the subject to be assessed.

6. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 5, characterized in that: The formulas for calculating the meridian qi and blood flow assessment index, meridian patency assessment index, and meridian health assessment index of the subject to be assessed are as follows: Among them, HmL is the meridian qi and blood flow evaluation index of the object to be evaluated, MyC′ is the pulse pressure difference of the object to be evaluated after standardization, φ1 is the pulse pressure coefficient stored in the database, MpC′ is the pulse frequency difference of the object to be evaluated after standardization, φ2 is the pulse frequency coefficient stored in the database, MqC′ is the pulse intensity difference of the object to be evaluated after standardization, φ3 is the pulse intensity coefficient stored in the database, MsC′ is the pulse wave propagation velocity difference of the object to be evaluated after standardization, φ4 is the propagation velocity coefficient stored in the database, φ1+φ2+φ3+φ4=1, e is a natural constant, HmT is the meridian patency evaluation index of the object to be evaluated, DaL′ ij is the conductivity value of the jth meridian point of the i-th meridian of the object to be evaluated after standardization, is the conductivity coefficient stored in the database, DzK′ ij is the impedance value of the jth meridian point of the i-th meridian of the object to be evaluated after standardized processing, is the impedance coefficient stored in the database, WdZ′ ij is the temperature value of the jth meridian point of the i-th meridian of the object to be evaluated after the standardization process, WdC′ is the temperature reference value of the object to be evaluated after the standardization process, is the temperature coefficient stored in the database, HkM is the meridian health assessment index of the object to be assessed, η1 is the qi and blood flow coefficient stored in the database, η2 is the patency coefficient stored in the database, η1+η2=1, i=1,2,3,…,i0, i0 is the number of meridians, j=1,2,3,…,j0, j0 is the number of meridian points.

7. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 1, characterized in that: The formula for calculating the comprehensive health assessment index of the zang-fu meridians of the subject to be assessed is as follows: Among them, ZhH is the comprehensive health assessment index of the viscera and meridians of the object to be evaluated, FzH is the viscera health assessment index of the object to be evaluated, ω1 is the viscera coefficient stored in the database, HkM is the meridian health assessment index of the object to be evaluated, ω2 is the meridian coefficient stored in the database, ω1+ω2=1, and e is a natural constant.

8. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 2, characterized in that: The specific steps for obtaining the energy health assessment index of the object to be assessed are as follows: Normalize the oxygen consumption value, carbon dioxide output value, blood oxygen saturation value, and muscle mass value of the subject to be evaluated; Comprehensively analyze the normalized oxygen consumption value, carbon dioxide output value, blood oxygen saturation value, and muscle mass value of the subject to be evaluated to obtain the energy metabolism evaluation index of the subject to be evaluated; Obtaining a reference value of body water content, a reference value of blood sugar content, and a reference value of free fatty acid content of the subject to be evaluated, and performing a comprehensive analysis based on the body water content value, the blood sugar content value, and the free fatty acid content value to obtain an energy storage evaluation index of the subject to be evaluated; The energy metabolism assessment index and energy storage assessment index of the subject to be assessed are comprehensively analyzed to obtain the energy health assessment index of the subject to be assessed.

9. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 8, characterized in that: The formulas for calculating the energy metabolism assessment index, energy storage assessment index, and energy health assessment index of the subject to be assessed are as follows: Wherein, HxD is the energy metabolism evaluation index of the object to be evaluated, EyH′ is the normalized carbon dioxide output value of the object to be evaluated, YqH′ is the normalized oxygen consumption value of the object to be evaluated, λ1 is the basic coefficient stored in the database, XyB′ is the normalized blood oxygen saturation value of the object to be evaluated, λ2 is the blood oxygen coefficient stored in the database, HrZ′ is the normalized muscle mass value of the object to be evaluated, λ3 is the mass coefficient stored in the database, λ1+λ2+λ3=1, HxN is the energy storage evaluation index of the object to be evaluated, JsF is the body water content value of the object to be evaluated, SfC is the reference value of body water content of the object to be evaluated, μ1 is the water coefficient stored in the database, HxT is the blood sugar content value of the object to be evaluated, XtC is the reference value of blood sugar content of the object to be evaluated, μ2 is the blood sugar coefficient stored in the database, HzF is the free fatty acid content value of the object to be evaluated, ZfC is the reference value of free fatty acid content of the object to be evaluated, μ3 is the fat coefficient stored in the database, μ1+μ2+μ3=1, e is a natural constant, HxK is the energy health assessment index of the object to be evaluated, θ1 is the metabolic coefficient stored in the database, θ2 is the storage coefficient stored in the database, θ1+θ2=1.

10. The method for evaluating the multi-parameter viscera and meridian functions and human energy levels according to claim 9, characterized in that: The specific steps for taking health management measures based on the corresponding judgment and analysis results are as follows: If the viscera and meridian comprehensive health assessment index of the subject to be assessed is lower than or equal to the preset viscera and meridian comprehensive health assessment threshold, a first viscera and meridian health management suggestion is sent to the subject to be assessed; If the viscera and meridian comprehensive health assessment index of the subject to be assessed is higher than the preset viscera and meridian comprehensive health assessment threshold, a second viscera and meridian health management suggestion is sent to the subject to be assessed; If the energy health assessment index of the subject to be assessed is lower than the lower limit of the preset energy health assessment threshold range, sending a first energy health management suggestion to the subject to be assessed; If the energy health assessment index of the subject to be assessed is within a preset energy health assessment threshold range, sending a second energy health management suggestion to the subject to be assessed; If the energy health assessment index of the object to be assessed is higher than the upper limit of the preset energy health assessment threshold range, a third energy health management suggestion is sent to the object to be assessed.

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