CN113940650B - Method and storage device for detecting influence of massage on hemodynamics - Google Patents

Abstract

The invention relates to the field of arterial hemodynamics, in particular to a method and storage device for detecting the influence of massage on hemodynamics. The method for detecting the influence of massage and massage on hemodynamics comprises the steps of: constructing a concentrated parameter equivalent circuit network simulation model of human arteries; adopting time-varying RLC (t) circuits to replace RLC circuits to form new human arteries A centralized parameter equivalent circuit network simulation model; the new centralized parameter equivalent circuit network simulation model of human arteries is run to obtain the influence changes of different massage and massage techniques on different arterial hemodynamics. The simulation model obtained by the above method can intuitively show the changes of human arterial hemodynamics with different massage and massage techniques during operation, and can provide a reference for formulating a more reasonable and scientific massage and massage treatment plan.

Description

A method and storage device for detecting the influence of massage and massage on hemodynamics

technical field

The invention relates to the field of arterial hemodynamics, in particular to a method and storage device for detecting the influence of massage on hemodynamics.

Background technique

Massage and massage of traditional Chinese medicine is a part of traditional Chinese medicine and a brilliant fruit of Chinese civilization. In the course of the modernization of TCM, people try to conduct evidence-based research on the mechanism of TCM massage and massage through modern science and technology. At present, there are finite element analysis methods based on the motion stenosis model, numerical methods based on lattice Boltzmann, and methods based on capillary-tissue hemodynamics models to study the hemodynamics of arterial vessels by massage and massage. However, limited by the complexity of the human arterial system, these methods are often difficult to simulate and analyze multi-segment arteries.

Moreover, for the finite element analysis method, due to the large number of finite element mesh models of the vascular system, the complex boundary conditions, and the difficulty in solving the hydrodynamic equations, most studies are limited to the modeling and analysis of a small segment of arteries, which is difficult to solve. To carry out the scientific study of the arterial system on a larger scale.

For the lattice Boltzmann method, which is a mesoscopic model between the microscopic molecular dynamics model and the macroscopic continuous model, it has advantages over the finite element method, but for the macroscopic system of simulating arteries, the lattice Boltzmann equation Relatively more complicated.

Therefore, how to study the influence of massage and massage on the hemodynamics of multi-segment arteries has become a technical problem that needs to be solved urgently.

Contents of the invention

For this reason, it is necessary to provide a method for detecting the influence of massage and massage on hemodynamics, so as to solve the technical problem that the existing technology cannot study the influence of massage and massage on the hemodynamics of multiple arterial vessels. The specific technical scheme is as follows:

A method for detecting the influence of massage and massage on hemodynamics, comprising the steps of:

A concentrated parameter equivalent circuit network simulation model of human arteries is constructed, and each arterial vessel in the concentrated parameter equivalent circuit network simulation model of human arteries is abstracted as an RLC circuit;

The time-varying RLC (t) circuit is used to replace the RLC circuit to form a new centralized parameter equivalent circuit network simulation model of human arteries, and the arterial vessel radius changing with time in the time-varying RLC (t) circuit is represented by different waveform functions , the different waveform functions represent the changing law of the arterial vessel radius with different massage and massage techniques;

By running the new centralized parameter equivalent circuit network simulation model of human arteries, the influence of different massage and massage techniques on the hemodynamics of different arteries can be obtained.

Further, the "constructing a centralized parameter equivalent circuit network simulation model of human arteries" specifically includes steps:

Divide human arteries into several segments, and each segment of arteries is abstractly equivalent to an RLC circuit;

Construct a centralized parameter equivalent circuit network simulation model based on the arterial tree model of the human body;

The excitation source of the simulation model is constructed according to the human aortic blood flow waveform.

Further, the time-varying RLC(t) circuit is a time-varying RLC(t) circuit generated by introducing a disturbance into the RLC circuit.

Further, the "running the new centralized parameter equivalent circuit network simulation model of the human artery to obtain the influence of different massage and massage techniques on the hemodynamics of different segments of the artery" specifically includes steps:

The new centralized parameter equivalent circuit network simulation model of human arteries is run through simulation software, and the model operation results are presented in the form of a visual interface.

Further, the "dividing human arteries into several segments" specifically includes the steps of:

Divide human arteries into 55 segments.

In order to solve the above technical problems, a storage device is also provided, and the specific technical solution is as follows:

A storage device having stored therein a set of instructions for performing:

A concentrated parameter equivalent circuit network simulation model of human arteries is constructed, and each arterial vessel in the concentrated parameter equivalent circuit network simulation model of human arteries is abstracted as an RLC circuit;

The time-varying RLC (t) circuit is used to replace the RLC circuit to form a new centralized parameter equivalent circuit network simulation model of human arteries, and the arterial vessel radius changing with time in the time-varying RLC (t) circuit is represented by different waveform functions , the different waveform functions represent the changing law of the arterial vessel radius with different massage and massage techniques;

By running the new centralized parameter equivalent circuit network simulation model of human arteries, the influence of different massage and massage techniques on the hemodynamics of different arteries can be obtained.

Further, the instruction set is also used to execute:

The "constructing a centralized parameter equivalent circuit network simulation model of human arteries" also specifically includes steps:

Divide human arteries into several segments, and each segment of arteries is abstractly equivalent to an RLC circuit;

Construct a centralized parameter equivalent circuit network simulation model based on the arterial tree model of the human body;

The excitation source of the simulation model is constructed according to the human aortic blood flow waveform.

Further, the time-varying RLC(t) circuit is a time-varying RLC(t) circuit generated by introducing a disturbance into the RLC circuit.

Further, the instruction set is also used to execute:

The "running the new concentrated parameter equivalent circuit network simulation model of the human artery to obtain the influence of different massage and massage techniques on the hemodynamics of different segments of the artery" specifically includes steps:

The new centralized parameter equivalent circuit network simulation model of human arteries is run through simulation software, and the model operation results are presented in the form of a visual interface.

Further, the instruction set is also used to execute: the "dividing the human arteries into several segments" specifically includes the steps of:

Divide human arteries into 55 segments.

The beneficial effects of the present invention are: a method for detecting the influence of massage and massage on hemodynamics, comprising the steps of: constructing a centralized parameter equivalent circuit network simulation model of human arteries, the concentrated parameter equivalent circuit network simulation model of human arteries Each arterial vessel in is abstracted as an RLC circuit; a time-varying RLC(t) circuit is used to replace the RLC circuit to form a new centralized parameter equivalent circuit network simulation model of the human artery, in which the time-varying RLC(t) circuit follows The time-varying arterial vessel radius is represented by different waveform functions, and the different waveform functions represent the change law of the arterial vessel radius with different massage and massage techniques; the centralized parameter equivalent circuit network simulation model of the new human artery is operated to obtain The effect of different massage and massage techniques on the hemodynamics of different segments of arteries. Through the above method, the influence of different massage and massage techniques on the radius of the arterial vessel is represented by a waveform function. The waveform function is used as one of the parameters of the RLC(t) circuit, and the original RLC circuit is replaced by the RLC(t) circuit to form a new The centralized parameter equivalent circuit network simulation model of human arteries can intuitively show the changes of human arterial hemodynamics with different massage and massage techniques during the operation process, and then can be used for formulating a more reasonable and scientific Massage massage treatment program provides reference.

Description of drawings

Fig. 1 is a flow chart of a method for detecting the influence of massage and massage on hemodynamics described in the specific embodiment;

Fig. 2 is the flow chart of the concentrated parameter equivalent circuit network simulation model of constructing human artery described in the specific embodiment;

Fig. 3 a is the RLC centralized parameter equivalent circuit model of each section of artery described in the specific embodiment;

Fig. 3b is a schematic diagram of the 55-segment arterial tree model described in the specific embodiment;

Fig. 3c is a schematic diagram of the equivalent circuit model of the 7-segment centralized parameters of the left upper limb described in the specific embodiment;

Fig. 4a is a schematic diagram of the time-varying resistance described in the specific embodiment;

Fig. 4b is a schematic diagram of the time-varying capacitor described in the specific embodiment;

Fig. 4c is a schematic diagram of the time-varying inductance described in the specific embodiment;

Fig. 5 is the sine wave and the triangular wave shape schematic diagram under the different frequencies described in the specific embodiment;

Fig. 6 is the schematic flow chart of the construction of the time-varying resistance R (t) model described in the specific embodiment;

Fig. 7a is a schematic diagram of changes in blood pressure described in the specific embodiment;

Fig. 7b is a schematic diagram of changes in blood flow described in specific embodiments;

Fig. 8 is a schematic diagram of modules of a storage device described in a specific embodiment.

Explanation of reference signs:

800. Storage device.

Detailed ways

In order to explain in detail the technical content, structural features, achieved goals and effects of the technical solution, the following will be described in detail in conjunction with specific embodiments and accompanying drawings.

Please refer to FIG. 1 to FIG. 7b. In this embodiment, a method for detecting the influence of massage and massage on hemodynamics can be applied to a storage device, which includes but is not limited to: personal computers, servers, General-purpose computers, special-purpose computers, network devices, embedded devices, programmable devices, etc. The specific technical scheme is as follows:

Step S101: constructing a lumped-parameter equivalent circuit network simulation model of human arteries, each arterial vessel in the lumped-parameter equivalent circuit network simulation model of human arteries is abstracted as an RLC circuit.

Step S102: replace the RLC circuit with a time-varying RLC(t) circuit to form a new centralized parameter equivalent circuit network simulation model of human arteries, the arterial vessel radius changing with time in the time-varying RLC(t) circuit is determined by different The waveform function indicates that the different waveform functions represent the changing rules of the arterial vessel radius with different massage and massage techniques.

Step S103: Run the new centralized parameter equivalent circuit network simulation model of the human artery to obtain the influence of different massage and massage techniques on the hemodynamics of different segments of the artery.

As shown in Figure 2, step S101 specifically includes steps:

Step S201: Divide the arteries of the human body into several segments, and each segment of the arteries is abstractly equivalent to an RLC circuit. In this embodiment, human arterial vessels are divided into several segments according to prior knowledge, for example, 55 segments, wherein each arterial vessel can be abstractly equivalent to an RLC circuit based on the following formula:

R=8ηl/(πr^4), L=ρl/(πr^2), C=(2πr^3l)/Eh

Among them, R, L, and C correspond to the resistance, inductance, and capacitance of the circuit respectively; η is the blood viscosity in the real arterial vessel, ρ is the blood density in the real arterial vessel, and r, l, and h are the real arterial vessel’s blood density in this segment, respectively. Radius, length and arterial wall thickness, E is the elastic modulus of the real arterial vessel.

Figure 3a shows the RLC lumped parameter equivalent circuit model of each artery segment, Figure 3b shows the 55-segment arterial tree model, and Figure 3c shows the 7-segment lumped parameter equivalent circuit model of the left upper limb.

Step S202: Construct a centralized parameter equivalent circuit network simulation model according to the artery tree model of the human body. And determine all known parameters of the simulation model.

Step S203: Construct the excitation source of the simulation model according to the human aortic blood flow waveform. For example, for the centralized parameter model of the 7-segment left upper limb, the standard setting parameters of normal people are used, and the human heart rate is set to 70 beat/min. The simulation excitation source uses the blood pressure measurement waveform of the human aortic arch to perform 8-order Fourier fitting, and the following is obtained Time-varying blood flow excitation source function;

Blood Pressure

＝a ₀ +a ₁ cos(ωt)+b ₁ sin(ωt)+a ₂ cos(2ωt)+b ₂ sin(2ωt)+a ₃ cos(3ωt)+b ₃ sin(3ωt)+a ₄ cos( 4ωt)+b ₄ sin(4ωt)+a ₅ cos(5ωt)+b ₅ sin(5ωt)+a ₆ cos(6ωt)+b _{6 sin(6ωt)+a 7 cos} (7ωt)+b ₇ sin(7ωt )+a ₈ cos(8ωt)+b ₈ sin(8ωt)

where a ₀ =70, a ₁ =83.95, b ₁ =102.3, a ₂ =-24.61, b ₂ =98.8, a ₃ =-53.43, b ₃ =20.81, a ₄ =-28.62, b ₄ =19.83, a ₅ = -38.05, b ₅ = -11, a ₆ = -7.822, b ₆ = -17.14, a ₇ = -4.74, b ₇ = -7.411, a ₈ = -0.7815, b ₈ = -8.382, ω = 7.328 .

In step S102, based on the fact that massage and massage can cause changes in the radius r of arterial vessels, when studying the influence of massage and massage on arterial hemodynamics, the equivalent RLC(t) circuit model that changes with time is used to replace the position where massage and massage are located. The equivalent RLC circuit of the original artery, for example, adopts the time-varying resistor shown in FIG. 4a, the time-varying capacitor shown in FIG. 4b, and the time-varying inductance model shown in FIG. 4c.

According to the characteristics of massage and massage techniques, the variation of arterial vessel radius with massage and massage can be described by different waveform functions. For example, sine wave function, triangle wave function, etc. Waveform characteristic parameters include frequency, phase, amplitude, etc., which can reflect the technical characteristics of different massage techniques. For example, the shapes of sine wave and triangular wave at different frequencies are shown in Figure 5. (a) time-varying curve of sine wave vessel radius, (b) time-varying curve of triangular wave vessel radius, (c) different phases (0°, 90°, 180°) of different multiplied frequencies (0.5f, f, 2f, 4f) The time-varying curve of sine wave vessel radius.

In order to facilitate the study of the influence of different massage parts on arterial hemodynamics, the time-varying RLC(t) circuit model adopts the time-varying RLC by introducing disturbances into the in-situ normal RLC circuit model. The construction process of the time-varying resistance R(t) model is shown in Figure 6. The upper left corner of Figure 6 is the constant resistance R model, and the lower left corner is the disturbance. The two are combined into a time-varying resistance R(t) and packaged as a module.

In step S103, in order to display the results more intuitively, the "operate the new human artery centralized parameter equivalent circuit network simulation model to obtain the influence of different massage and massage techniques on the hemodynamic changes of different segments of arteries", Specifically, it also includes steps:

The new centralized parameter equivalent circuit network simulation model of human arteries is run through simulation software, and the model operation results are presented in the form of a visual interface.

That is, after the model is built, through the calculation and display of the simulation software, you can view the changes in arterial hemodynamics in different segments, such as blood pressure and blood flow. Figure 7a is a schematic diagram of blood pressure changes, and Figure 7b is a schematic diagram of blood flow changes.

A method for detecting the influence of massage and massage on hemodynamics, comprising the steps of: constructing a centralized parameter equivalent circuit network simulation model of human arteries, each arterial vessel in the centralized parameter equivalent circuit network simulation model of human arteries is It is abstracted as an RLC circuit; a time-varying RLC (t) circuit is used to replace the RLC circuit to form a new centralized parameter equivalent circuit network simulation model of human arteries, and the time-varying arterial vessel radius in the time-varying RLC (t) circuit is given by Different waveform functions represent that the different waveform functions represent the change law of the arterial vessel radius with different massage and massage techniques; run the new concentrated parameter equivalent circuit network simulation model of human arteries to obtain different massage and massage techniques for different segments. Influencing changes in arterial hemodynamics. Through the above method, the influence of different massage and massage techniques on the radius of the arterial vessel is represented by a waveform function. The waveform function is used as one of the parameters of the RLC(t) circuit, and the original RLC circuit is replaced by the RLC(t) circuit to form a new The centralized parameter equivalent circuit network simulation model of human arteries can intuitively show the changes of human arterial hemodynamics with different massage and massage techniques during the operation process, and then can be used for formulating a more reasonable and scientific Massage massage treatment program provides reference.

Referring to FIG. 3a to FIG. 8, in this implementation manner, a specific implementation manner of a storage device 800 is as follows:

A storage device 800, in which an instruction set is stored, and the instruction set is used to execute:

A concentrated parameter equivalent circuit network simulation model of human arteries is constructed, and each arterial vessel in the concentrated parameter equivalent circuit network simulation model of human arteries is abstracted as an RLC circuit;

The time-varying RLC (t) circuit is used to replace the RLC circuit to form a new centralized parameter equivalent circuit network simulation model of human arteries, and the arterial vessel radius changing with time in the time-varying RLC (t) circuit is represented by different waveform functions , the different waveform functions represent the changing law of the arterial vessel radius with different massage and massage techniques;

By running the new centralized parameter equivalent circuit network simulation model of human arteries, the influence of different massage and massage techniques on the hemodynamics of different arteries can be obtained.

Further, the instruction set is also used to execute:

The "constructing a centralized parameter equivalent circuit network simulation model of human arteries" also specifically includes steps:

The human arteries are divided into several segments, and each segment of arteries is abstractly equivalent to an RLC circuit. In this embodiment, human arterial vessels are divided into several segments according to prior knowledge, for example, 55 segments, wherein each arterial vessel can be abstractly equivalent to an RLC circuit based on the following formula:

R=8ηl/(πr^4), L=ρl/(πr^2), C=(2πr^3l)/Eh

Among them, R, L, and C correspond to the resistance, inductance, and capacitance of the circuit respectively; η is the blood viscosity in the real arterial vessel, ρ is the blood density in the real arterial vessel, and r, l, and h are the real arterial vessel’s blood density in this segment, respectively. Radius, length and arterial wall thickness, E is the elastic modulus of the real arterial vessel.

Figure 3a shows the RLC lumped parameter equivalent circuit model of each artery segment, Figure 3b shows the 55-segment arterial tree model, and Figure 3c shows the 7-segment lumped parameter equivalent circuit model of the left upper limb.

Based on the arterial tree model of the human body, a centralized parameter equivalent circuit network simulation model is constructed. And determine all known parameters of the simulation model.

The excitation source of the simulation model is constructed according to the human aortic blood flow waveform. For example, for the centralized parameter model of the 7-segment left upper limb, the standard setting parameters of normal people are used, and the human heart rate is set to 70 beat/min. The simulation excitation source uses the blood pressure measurement waveform of the human aortic arch to perform 8-order Fourier fitting, and the following is obtained Time-varying blood flow excitation source function;

Blood Pressure

＝a ₀ +a ₁ cos(ωt)+b ₁ sin(ωt)+a ₂ cos(2ωt)+b ₂ sin(2ωt)+a ₃ cos(3ωt)+b ₃ sin(3ωt)+a ₄ cos( 4ωt)+b ₄ sin(4ωt)+a ₅ cos(5ωt)+b ₅ sin(5ωt)+a ₆ cos(6ωt)+b ₆ sin(6ωt)+a ₇ cos(7ωt)+b ₇ sin(7ωt )+a ₈ cos(8ωt)+b ₈ sin(8ωt)

where a ₀ =70, a ₁ =83.95, b ₁ =102.3, a ₂ =-24.61, b ₂ =98.8, a ₃ =-53.43, b ₃ =20.81, a ₄ =-28.62, b ₄ =19.83, a ₅ = -38.05, b ₅ = -11, a ₆ = -7.822, b ₆ = -17.14, a ₇ = -4.74, b ₇ = -7.411, a ₈ = -0.7815, b ₈ = -8.382, ω = 7.328 .

Further, based on the fact that massage and massage can cause changes in the radius r of arterial vessels, when studying the influence of massage and massage on arterial hemodynamics, the equivalent RLC(t) circuit model that changes over time is used to replace the The equivalent RLC circuit of the original artery, for example, adopts the time-varying resistor shown in FIG. 4a, the time-varying capacitor shown in FIG. 4b, and the time-varying inductance model shown in FIG. 4c.

According to the characteristics of massage and massage techniques, the variation of arterial vessel radius with massage and massage can be described by different waveform functions. For example, sine wave function, triangle wave function, etc. Waveform characteristic parameters include frequency, phase, amplitude, etc., which can reflect the technical characteristics of different massage techniques. For example, the shapes of sine wave and triangular wave at different frequencies are shown in Figure 5. (a) time-varying curve of sine wave vessel radius, (b) time-varying curve of triangular wave vessel radius, (c) different phases (0°, 90°, 180°) of different multiplied frequencies (0.5f, f, 2f, 4f) The time-varying curve of sine wave vessel radius.

In order to facilitate the study of the influence of different massage parts on arterial hemodynamics, the time-varying RLC(t) circuit model adopts the time-varying RLC by introducing disturbances into the in-situ normal RLC circuit model. The construction process of the time-varying resistance R(t) model is shown in Figure 6. The upper left corner of Figure 6 is the constant resistance R model, and the lower left corner is the disturbance. The two are combined into a time-varying resistance R(t) and packaged as a module.

Further, in order to display the results more intuitively, the instruction set is also used to execute:

The "running the new concentrated parameter equivalent circuit network simulation model of the human artery to obtain the influence of different massage and massage techniques on the hemodynamics of different segments of the artery" specifically includes steps:

The new centralized parameter equivalent circuit network simulation model of human arteries is run through simulation software, and the model operation results are presented in the form of a visual interface.

That is, after the model is built, through the calculation and display of the simulation software, you can view the changes in arterial hemodynamics in different segments, such as blood pressure and blood flow. Figure 7a is a schematic diagram of blood pressure changes, and Figure 7b is a schematic diagram of blood flow changes.

By executing the instruction set in the above-mentioned storage device 800, the influence of different massage and massage techniques on the radius of the arterial vessel is represented by a waveform function. The waveform function is used as one of the parameters of the RLC(t) circuit, and the original RLC(t) circuit is used to replace the original The RLC circuit of the human body forms a new centralized parameter equivalent circuit network simulation model of human arteries. During the operation of this simulation model, it can intuitively show the changes of human arterial hemodynamics with different massage and massage techniques, and then can To provide a reference for formulating a more reasonable and scientific massage and massage treatment plan.

It should be noted that although the foregoing embodiments have been described herein, the scope of protection of the present invention is not limited thereby. Therefore, based on the innovative concept of the present invention, the changes and modifications made to the embodiments described herein, or the equivalent structure or equivalent process conversion made by using the description of the present invention and the contents of the accompanying drawings, directly or indirectly apply the above technical solutions In other related technical fields, all are included in the patent protection scope of the present invention.

Claims (10)

1. A method for detecting the influence of massage on hemodynamics is characterized by comprising the following steps:

constructing a lumped parameter equivalent circuit network simulation model of the human artery, wherein each segment of artery blood vessel in the lumped parameter equivalent circuit network simulation model of the human artery is abstracted into an RLC circuit;

a time-varying RLC (t) circuit is adopted to replace an RLC circuit, so that a new centralized parameter equivalent circuit network simulation model of the human artery is formed, the radius of the artery blood vessel which changes along with time in the time-varying RLC (t) circuit is represented by different wave functions, and the different wave functions represent the change rule of the radius of the artery blood vessel along with different massage manipulations;

and operating the new centralized parameter equivalent circuit network simulation model of the human artery to obtain the influence change of different massage manipulations on different artery hemodynamics.

2. The method for detecting the influence of massage on hemodynamics as claimed in claim 1, wherein said "constructing a lumped parameter equivalent circuit network simulation model of human artery" further comprises the steps of:

dividing the artery blood vessel of the human body into a plurality of sections, wherein each section of artery blood vessel is abstractly equivalent to an RLC circuit;

constructing a lumped parameter equivalent circuit network simulation model according to an arterial tree model of a human body;

and constructing an excitation source of the simulation model according to the blood flow waveform of the human aorta.

3. The method of any one of claims 1 or 2, wherein the step of performing the massage on the hemodynamics is performed by a computer,

the time-varying RLC (t) circuit generates a time-varying RLC (t) circuit for introducing perturbations on the RLC circuit.

4. The method of claim 1, wherein the step of operating the new lumped parameter equivalent circuit network simulation model of the human artery to obtain the influence change of different massage manipulations on different segments of arterial hemodynamics further comprises the steps of:

and operating the new lumped parameter equivalent circuit network simulation model of the human artery through simulation software, and presenting a model operation result in a visual interface mode.

5. The method for detecting the influence of massage on hemodynamics as claimed in claim 2, wherein said "dividing the arterial blood vessel of the human body into several segments" further comprises the steps of:

the human artery blood vessel is divided into 55 sections.

6. A memory device having a set of instructions stored therein, the set of instructions being configured to perform:

constructing a lumped parameter equivalent circuit network simulation model of the human artery, wherein each segment of artery blood vessel in the lumped parameter equivalent circuit network simulation model of the human artery is abstracted into an RLC circuit;

a time-varying RLC (t) circuit is adopted to replace an RLC circuit, so that a new centralized parameter equivalent circuit network simulation model of the human artery is formed, the radius of the artery blood vessel which changes along with time in the time-varying RLC (t) circuit is represented by different wave functions, and the different wave functions represent the change rule of the radius of the artery blood vessel along with different massage manipulations;

and operating the new centralized parameter equivalent circuit network simulation model of the human artery to obtain the influence change of different massage manipulations on different artery hemodynamics.

7. The storage device of claim 6, wherein the set of instructions is further configured to perform:

the method for constructing the lumped parameter equivalent circuit network simulation model of the human artery specifically comprises the following steps:

dividing the artery blood vessel of the human body into a plurality of sections, wherein each section of artery blood vessel is abstractly equivalent to an RLC circuit;

constructing a lumped parameter equivalent circuit network simulation model according to an arterial tree model of a human body;

and constructing an excitation source of the simulation model according to the blood flow waveform of the human aorta.

8. A memory device according to claim 7, wherein the time-varying RLC (t) circuit generates a time-varying RLC (t) circuit for introducing a perturbation on the RLC circuit.

9. The storage device of claim 6, wherein the set of instructions is further configured to perform:

the new simulation model of the lumped parameter equivalent circuit network of the human artery is operated to obtain the influence change of different massage manipulations on different artery hemodynamics, and the method specifically comprises the following steps:

and operating the new lumped parameter equivalent circuit network simulation model of the human artery through simulation software, and presenting a model operation result in a visual interface mode.

10. The storage device of claim 7, wherein the set of instructions is further configured to perform: the method for dividing the human artery blood vessel into a plurality of sections specifically comprises the following steps:

the human artery blood vessel is divided into 55 sections.

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