Two-way shock wave therapeutic apparatus system based on front-end-mounted wave source handle

Abstract

The invention relates to the technical field of shock wave treatment systems, and provides a two-way shock wave therapeutic apparatus system based on a front-end-mounted wave source handle, which comprises a wave source terminal, a control terminal, a two-way handle terminal, a feedback sensing terminal, an action area adjusting terminal and an interface terminal, the wave source terminal is used for generating and outputting two paths of shock wave signals; the two-way handle terminal is used for adjusting and realizing impact output according to the two-way impact wave signal; the control terminal is used for controlling the operation of each terminal; the feedback sensing terminal is used for generating and executing a parameter feedback adjusting instruction according to real-time feedback of a patient; the parameter feedback adjusting instruction is used for adjusting system output parameters based on real-time feedback of the patient; and the action area adjusting terminal is used for analyzing the treatment area according to the operation condition of the operator and the working parameter output condition, and generating and executing an action area adjusting instruction. The method has the effect of improving the accuracy of working parameters in the shock wave treatment process.

Description

Technical Field

[0001] The invention relates to the technical field of shock wave therapy systems, and in particular to a dual-path shock wave therapy instrument system based on a front-end mounted wave source handle. Background Art

[0002] Shock wave therapy technology is widely used in the medical field, especially in musculoskeletal treatment, pain relief and soft tissue repair. Traditional shock wave therapy devices usually rely on fixed equipment and complex surgical procedures. The configuration, operation mode and transmission efficiency of shock waves have always been important challenges to improve the treatment effect. However, the structure of most shock wave therapy devices on the market currently has great limitations, and the treatment effect is limited by the efficiency of the wave source and the adaptability of the equipment.

[0003] Now many shock wave therapy instrument systems have been developed. After a lot of searching and reference, we found that the shock wave therapy instrument systems in the prior art include the shock wave therapy instrument systems disclosed in publication numbers CN113229887A, CN112401979A, CN117469137A, CN112401979A, EP0414209A1, and US20040162508A1. These shock wave therapy instrument systems generally include: a shock wave generating terminal, a control terminal, and a shock wave output terminal; the shock wave generating terminal is used to generate a wave source of shock waves; the control terminal is used to control the coordinated operation of the shock wave generating terminal and the shock wave output terminal; the shock wave output terminal is used to output shock waves and treat patients. Since the shock wave working parameter control process of the above-mentioned shock wave therapy instrument system is relatively simple and lacks adaptive adjustment based on the patient himself, the accuracy of the working parameters in the shock wave therapy process is reduced. Summary of the invention

[0004] The purpose of the present invention is to address the deficiencies of the above-mentioned shock wave therapy system and to propose a dual-channel shock wave therapy system based on a front-end mounted wave source handle.

[0005] The present invention adopts the following technical solution:

[0006] A dual-channel shock wave therapeutic instrument system based on a front-end mounted wave source handle comprises a wave source terminal, a control terminal, a dual-channel handle terminal, a feedback sensing terminal, an action area adjustment terminal and an interface terminal; the wave source terminal is used to generate and output a dual-channel shock wave signal; the dual-channel handle terminal is used to adjust and realize the shock output according to the dual-channel shock wave signal; the control terminal is used to control the operation of the wave source terminal, the control terminal, the dual-channel handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal; the feedback sensing terminal is used to generate and execute a parameter feedback adjustment instruction according to the patient's real-time feedback; the parameter feedback adjustment instruction is used to adjust the system output parameter based on the patient's real-time feedback; the action area adjustment terminal is used to analyze the treatment area according to the operator's operation and the output of the working parameters, and generate and execute the action area adjustment instruction; the action area adjustment instruction is used to adjust the treatment area corresponding to the patient based on the operation process and the working parameters; the interface terminal is used to display the system's workflow and operation information, and provide human-computer interaction for the operator.

[0007] Optionally, the wave source terminal includes a signal generating module, a signal output module and a wave source control module; the signal generating module is used to generate a dual-path shock wave signal; the signal output module is used to output the generated dual-path shock wave signal to the dual-path handle terminal; the wave source control module is used to control the generation process and output process of the wave source signal.

[0008] Optionally, the control terminal includes a general control management module, a device operation module and a system monitoring module; the general control management module is used to control the coordinated operation of the wave source terminal, the dual-channel handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal; the device operation module is used to perform operation settings for each terminal device; the system monitoring module is used to monitor the operating status of each terminal, abnormal conditions during the treatment process and system parameters in real time.

[0009] Optionally, the dual-way handle terminal includes a signal receiving module, a dual-way handle body and an output adjustment module; the signal receiving module is used to receive the dual-way shock wave signal from the signal output module; the dual-way handle body is used to perform shock wave therapy on the patient; the output adjustment module is used to adjust the output intensity and frequency of the dual-way handle body according to the signal reception situation.

[0010] Optionally, the feedback sensing terminal includes a real-time feedback module, a parameter analysis module and a feedback instruction module; the real-time feedback module is used to collect the patient's physical response data in real time and generate feedback information; the parameter analysis module is used to analyze and generate feedback adjustment parameters based on the feedback information; the feedback instruction module is used to generate feedback instructions based on the feedback adjustment parameters, and send the feedback instructions to the device operation module.

[0011] Optionally, the action area adjustment terminal includes a regional analysis module, an adjustment instruction generation module and a regional adjustment module; the regional analysis module is used to generate analysis and evaluation information based on the parameters input by the operator and the real-time working parameters; the adjustment instruction generation module is used to generate regional adjustment instructions according to the analysis and evaluation information; the regional adjustment module is used to adjust the patient's treatment area in real time according to the regional adjustment instructions.

[0012] Optionally, the interface terminal includes a user interface display module, an interactive input module and a treatment process feedback module; the user interface display module is used to display various system operating data, treatment process information and treatment parameters to the operator; the interactive input module is used to receive instructions input by the operator; the treatment process feedback module is used to provide real-time treatment feedback to the operator.

[0013] A method for using a dual-channel shock wave therapy device based on a front-end mounted wave source handle is applied to a dual-channel shock wave therapy device system based on a front-end mounted wave source handle as described above. The method for using the dual-channel shock wave therapy device includes:

[0014] S1, generates and outputs dual-path shock wave signals;

[0015] S2, adjusts and realizes shock output according to dual-channel shock wave signals;

[0016] S3, controlling the operation of the wave source terminal, the control terminal, the dual-way handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal;

[0017] S4, generating and executing parameter feedback adjustment instructions based on the patient's real-time feedback;

[0018] S5, adjusting system output parameters based on real-time feedback from patients;

[0019] S6, analyzing the treatment area according to the operator's operation and the output of the working parameters, and generating and executing the action area adjustment instruction;

[0020] S7, adjusting the treatment area corresponding to the patient based on the operation process and working parameters.

[0021] The beneficial effects achieved by the present invention are:

[0022] 1. By setting the wave source terminal, control terminal, dual-channel handle terminal, feedback sensing terminal, action area adjustment terminal and interface terminal, the effective coordination of various modules can be achieved, which is conducive to improving the accuracy and efficiency of the treatment process, and then adjusting the treatment parameters according to the patient's real-time feedback, improving the accuracy of the working parameters of the shock wave treatment process, which is conducive to improving the personalized customization of the treatment process and the accurate adjustment of the treatment area.

[0023] 2. By setting up a signal generation module, a signal output module and a wave source control module, the accurate generation and stable output of the dual-path shock wave signal can be ensured, which is conducive to providing a stable treatment signal source, thereby improving the reliability and consistency of the dual-path shock wave during the treatment process, which is conducive to the controllability and safety of the treatment effect.

[0024] 3. By setting up the general control management module, equipment operation module and system monitoring module, the coordinated operation and monitoring of each terminal device can be achieved, which is conducive to controlling various parameters in the treatment process, thereby improving the simplicity and accuracy of operation, which is conducive to real-time adjustment of treatment effects and the safety of system operation.

[0025] 4. By setting up a signal receiving module, a dual-channel handle body and an output adjustment module, the handle output intensity and frequency can be adjusted according to the reception of the dual-channel shock wave signal, which is beneficial to the precise adjustment of the treatment intensity and effect during the treatment process, thereby improving the personalization and pertinence of the treatment, thereby helping to reduce the patient's discomfort and enhance the treatment effect.

[0026] 5. By setting up the real-time feedback module, parameter analysis module and feedback instruction module, the patient's physical response data can be collected in real time and feedback instructions can be generated, which is conducive to automatically adjusting the treatment parameters according to the patient's physiological feedback, thereby optimizing the treatment plan and improving the degree of personalization of the treatment, which is conducive to improving the treatment effect and enhancing the patient's comfort.

[0027] 6. By setting up the regional analysis module, the adjustment instruction generation module and the regional adjustment module, the adjustment instructions can be generated according to the patient's real-time feedback and the parameters of the treatment area, which is conducive to accurately adjusting the treatment area, thereby improving the coverage and accuracy of the treatment area, thereby helping to enhance the treatment effect and reduce resource waste.

[0028] 7. By setting up the user interface display module, interactive input module and treatment process feedback module, real-time treatment information and treatment process feedback can be provided to the operator, which is conducive to the operator's precise control and adjustment of the treatment process, thereby improving the operator's treatment efficiency and operation convenience, which is conducive to the optimization of the treatment process and the improvement of the patient's treatment experience.

[0029] 8. By accurately modeling the treatment effects and making predictions based on a variety of factors, it is possible to evaluate and adjust various parameters during the treatment process in real time, which is conducive to adjusting the treatment plan according to the patient's physiological response, thereby improving the personalization and accuracy of the treatment, which is conducive to improving the overall treatment effect and ensuring that patients obtain the best treatment results while reducing side effects and discomfort.

[0030] 9. By setting a calculation formula for the priority score, the priority of each area can be dynamically adjusted based on the physical characteristics and treatment needs of multiple treatment areas, which is conducive to accurate priority sorting of treatment areas, and then reasonably allocating treatment resources and treatment intensity according to priority during the treatment process, which is conducive to optimizing the resource allocation of the treatment process, enhancing the treatment effect and improving the treatment efficiency.

[0031] To further understand the features and technical contents of the present invention, please refer to the following detailed description and drawings of the present invention. However, the drawings provided are only for reference and description and are not intended to limit the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0033] Figure 2 It is a schematic diagram of the statistical effect of the calculation results of the feedback adjustment parameters in the present invention;

[0034] Figure 3 A schematic diagram of a method flow of a method for using a dual-channel shock wave therapeutic apparatus based on a front-end mounted wave source handle in the present invention;

[0035] Figure 4 It is a structural schematic diagram of a regional analysis module in another embodiment of the present invention;

[0036] Figure 5 It is a schematic diagram of the statistical effect of the priority score calculation result in another embodiment of the present invention. DETAILED DESCRIPTION

[0037] The following is an explanation of the embodiments of the present invention through specific embodiments. Those skilled in the art can understand the advantages and effects of the present invention from the contents disclosed in this specification. The present invention can be implemented or applied through other different specific embodiments, and the details in this specification can also be modified and changed in various ways based on different viewpoints and applications without departing from the spirit of the present invention. In addition, the drawings of the present invention are only simple schematic illustrations and are not depicted according to actual dimensions. It is stated in advance. The following embodiments will further explain the relevant technical contents of the present invention in detail, but the disclosed contents are not intended to limit the scope of protection of the present invention.

[0038] Embodiment 1: This embodiment provides a dual-channel shock wave therapy device system based on a front-end mounted wave source handle. Figure 1As shown, a dual-channel shock wave therapy instrument system based on a front-end mounted wave source handle comprises a wave source terminal, a control terminal, a dual-channel handle terminal, a feedback sensing terminal, an action area adjustment terminal and an interface terminal; the wave source terminal is used to generate and output a dual-channel shock wave signal; the dual-channel handle terminal is used to adjust and realize the shock output according to the dual-channel shock wave signal; the control terminal is used to control the operation of the wave source terminal, the dual-channel handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal; the feedback sensing terminal is used to generate and execute parameter feedback adjustment instructions according to the patient's real-time feedback; the parameter feedback adjustment instructions are used to adjust the system output parameters based on the patient's real-time feedback; the action area adjustment terminal is used to analyze the treatment area according to the operator's operation and the output of the working parameters, and to generate and execute the action area adjustment instructions; the action area adjustment instructions are used to adjust the treatment area corresponding to the patient based on the operation process and the working parameters; the interface terminal is used to display the system's workflow and operation information to provide human-computer interaction for the operator.

[0039] Optionally, the wave source terminal includes a signal generating module, a signal output module and a wave source control module; the signal generating module is used to generate a dual-path shock wave signal; the signal output module is used to output the generated dual-path shock wave signal to the dual-path handle terminal; the wave source control module is used to control the generation process and output process of the wave source signal.

[0040] Optionally, the control terminal includes a general control management module, a device operation module and a system monitoring module; the general control management module is used to control the coordinated operation of the wave source terminal, the dual-channel handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal; the device operation module is used to perform operation settings for each terminal device; the system monitoring module is used to monitor the operating status of each terminal, abnormal conditions during the treatment process and system parameters in real time.

[0041] Optionally, the dual-way handle terminal includes a signal receiving module, a dual-way handle body and an output adjustment module; the signal receiving module is used to receive the dual-way shock wave signal from the signal output module; the dual-way handle body is used to perform shock wave therapy on the patient; the output adjustment module is used to adjust the output intensity and frequency of the dual-way handle body according to the signal reception situation.

[0042] Optionally, the feedback sensing terminal includes a real-time feedback module, a parameter analysis module and a feedback instruction module; the real-time feedback module is used to collect the patient's physical response data in real time and generate feedback information; the parameter analysis module is used to analyze and generate feedback adjustment parameters based on the feedback information; the feedback instruction module is used to generate feedback instructions based on the feedback adjustment parameters, and send the feedback instructions to the device operation module.

[0043] Specifically, when the parameter analysis module is working, it satisfies the following formula:

[0044]

[0045] Among them, T total Represents the current feedback adjustment parameter; the higher the feedback adjustment parameter, the better the predicted treatment effect; when T total <T ref When the feedback instruction module generates a feedback instruction for improving the predicted treatment effect, and sends the feedback instruction to the device operation module; the method of improving the predicted treatment effect may be, but is not limited to: 1. increasing the intensity of the shock wave; 2. adjusting the appropriate shock wave frequency; 3. expanding the treatment area; 4. increasing the treatment time. ref Indicates the judgment threshold, which is set by the operator based on experience. i represents the regional weight coefficient of the i-th treatment area. The larger the treatment area, the larger the regional weight coefficient. The specific value is set by the operator based on experience. n represents the total number of treatment areas; the treatment area is preset by the patient and the operator. i,j represents the planned signal strength of the j-th shock wave signal when treating the i-th treatment area; α i,j I represents the signal strength adjustment factor of the j-th shock wave signal when treating the i-th treatment area. The greater the treatment intensity required by the operator, the greater the signal strength adjustment factor. The specific value is set by the operator based on experience; i,j represents the planned signal frequency of the j-th shock wave signal when treating the i-th treatment area; β i,j It represents the signal frequency adjustment factor of the j-th shock wave signal when treating the i-th treatment area. The deeper the depth of the treatment area, the larger the signal frequency adjustment factor. The specific value is set by the operator based on experience. e represents a natural constant, which is the base of the natural logarithm. represents the attenuation factor; δ i,j It represents the attenuation coefficient of the j-th shock wave signal when treating the i-th treatment area. The longer the corresponding treatment time, the larger the attenuation coefficient. The specific value is set by the operator based on experience; t i,j represents the planned treatment duration of the j-th shock wave signal when treating the i-th treatment area; (1+κ i,j D i,j ) represents the treatment area adjustment factor; κ i,j It represents the treatment area adjustment coefficient of the j-th shock wave signal when treating the i-th treatment area. The larger the treatment area, the larger the treatment area adjustment coefficient. The specific value is set by the operator based on experience. i,jrepresents the treatment area when the j-th shock wave signal treats the i-th treatment area; Represents the influence term of the ratio of shock wave intensity to frequency; γ i,j It represents the ratio coefficient of the j-th shock wave signal when treating the i-th treatment area. The longer the treatment time, the larger the ratio coefficient. The specific value is set by the operator based on experience; (1+η i,j ·t i,j ) represents the moderating effect of treatment time on the effect; η i,j It represents the time coefficient of the j-th shock wave signal when treating the i-th treatment area. The more negative feedback times the patient has in the historical treatment process, the larger the time coefficient is. The specific value is set by the operator based on experience.

[0046] Combination Figure 2 As shown, in order to more clearly understand and use the above feedback adjustment parameter calculation formula, the following is explained by taking a calculation example as an example.

[0047] Known conditions:

[0048] Treatment area 1 (back muscles): w1 = 1.0;

[0049] Treatment area: D1 = 10 cm 2 ;

[0050] Shock wave intensity f 1,1 =5N, f 1,2 =4.5N;

[0051] Shock wave frequency I 1,1 =2Hz, I 1,1 =2.2Hz;

[0052] Treatment time 1,1 =10min, t 1,2 =10min;

[0053] Adjustment factor: α 1,1 =1.2, β 1,1 =1.5,γ 1,1 =1.1,δ 1,1 =0.05, k 1,1 =0.3, η 1,1 =0.02; α 1,2 =1.1, β 1,2 =1.4,γ 1,2 =1.05,δ 1,2 =0.04, κ 1,2 =0.25, η 1,2 =0.03;

[0054] Treatment area 2 (shoulder): w2 = 0.8;

[0055] Treatment area: D2 = 5 cm 2 ;

[0056] Shock wave intensity f 2,1 =4N, f 2,2 =3.5N;

[0057] Shock wave frequency I 2,1 =2.5Hz, I 2,2 =2.8Hz;

[0058] Treatment time 2,1 =12min, t 2,2 =12min;

[0059] Adjustment factor: α 2,1 =1.3, β 2,1 =1.6,γ 2,1 =1.2,δ 2,1 =0.06, k 2,1 =0.35, η 2,1 =0.01;

[0060] α 2,2 =1.2, β 2,2 =1.5,γ 2,2 =1.15,δ 2,2 =0.05,κ 2,2 =0.3, η 2,2 =0.015.

[0061] Calculation process:

[0062]

[0063]

[0064] T total =1.0·(123.63+76.23)+0.8·(42.79+69.33)=289.556.

[0065] If T ref =250, it means that the feedback adjustment parameter meets the standard. The feedback instruction module generates a feedback instruction for indicating that the treatment parameter is maintained, and sends the feedback instruction to the device operation module.

[0066] The following is the program code for the feedback adjustment parameter calculation process:

[0067] import math

[0068] #Parameter settings

[0069] #Region weight

[0070] w1=1.0#weight of back area

[0071] w2=0.8#shoulder area weight

[0072] #Parameters for each channel in each area

[0073] #Area 1 (back muscles)

[0074] f1_1=5#Route 1 strength (N)

[0075] I1_1=2# channel 1 frequency (Hz)

[0076] t1_1 = 10 # Treatment time of route 1 (min)

[0077] D1_1=10#Route 1 treatment area (cm^2)

[0078] alpha1_1=1.2

[0079] beta1_1=1.5

[0080] gamma1_1=1.1

[0081] delta1_1=0.05

[0082] kappa1_1=0.3

[0083] eta1_1=0.02

[0084] f1_2=4.5#Road 2 strength (N)

[0085] I1_2=2.2# Channel 2 frequency (Hz)

[0086] t1_2 = 10 # Treatment time for route 2 (min)

[0087] D1_2 = 10# Road 2 treatment area (cm^2) alpha1_2 = 1.1

[0088] beta1_2=1.4gamma1_2=1.05

[0089] delta1_2=0.04

[0090] kappa1_2=0.25

[0091] eta1_2=0.03

[0092] #Area 2 (shoulder muscles)

[0093] f2_1=4# road 1 strength (N)

[0094] I2_1=2.5# Channel 1 frequency (Hz)

[0095] t2_1 = 12 # Treatment time of route 1 (min) D2_1 = 5 # Treatment area of ​​route 1 (cm^2) alpha2_1 = 1.3

[0096] beta2_1=1.6gamma2_1=1.2

[0097] delta2_1=0.06

[0098] kappa2_1=0.35

[0099] eta2_1=0.01f2_2=3.5#Road 2 strength (N)

[0100] I2_2=2.8# Channel 2 frequency (Hz)

[0101] t2_2 = 12 # Treatment time of route 2 (min) D2_2 = 5 # Treatment area of ​​route 2 (cm^2) alpha2_2 = 1.2

[0102] beta2_2=1.5gamma2_2=1.15

[0103] delta2_2=0.05

[0104] kappa2_2=0.3

[0105] eta2_2=0.015

[0106] #Calculate the treatment effect of each channel

[0107] def calculate_treatment_effect(f,I,t,D,alpha,beta,gamma,delta,kappa,eta):

[0108] term1=f**alpha*I**beta*math.exp(-delta*t)

[0109] term2=(1+kappa*D)*(f / I)**gamma*(1+eta*t)

[0110] return term1*term2

[0111] #Calculate the treatment effect of area 1 (back)

[0112] T1_1=calculate_treatment_effect(f1_1,I1_1,t1_1,D1_1,alpha1_1,beta1_1,gamma1_1,delta1_1,kappa1_1,eta1_1)

[0113] T1_2=calculate_treatment_effect(f1_2,I1_2,t1_2,D1_2,alpha1_2,beta1_2,gamma1_2,delta1_2,kappa1_2,eta1_2)

[0114] #Calculate the treatment effect of area 2 (shoulder)

[0115] T2_1=calculate_treatment_effect(f2_1,I2_1,t2_1,D2_1,alpha2_1,beta2_1,gamma2_1,delta2_1,kappa2_1,eta2_1)

[0116] T2_2=calculate_treatment_effect(f2_2,I2_2,t2_2,D2_2,alpha2_2,beta2_2,gamma2_2,delta2_2,kappa2_2,eta2_2)

[0117] #Calculate the total treatment effect

[0118] T_total=w1*(T1_1+T1_2)+w2*(T2_1+T2_2)

[0119] # Output results

[0120] print("Area 1 Road 1 Treatment Effect (Back):",T1_1)

[0121] print("Area 1 Road 2 Treatment Effect (Back):",T1_2)

[0122] print("Area 2, route 1 treatment effect (shoulder):",T2_1)

[0123] print("Area 2, route 2 treatment effect (shoulder):",T2_2)

[0124] print("Total treatment effect:",T_total).

[0125] Optionally, the action area adjustment terminal includes a regional analysis module, an adjustment instruction generation module and a regional adjustment module; the regional analysis module is used to generate analysis and evaluation information based on the parameters input by the operator and the real-time working parameters; the adjustment instruction generation module is used to generate regional adjustment instructions based on the analysis and evaluation information; the regional adjustment module is used to adjust the patient's treatment area in real time according to the regional adjustment instructions.

[0126] Optionally, the interface terminal includes a user interface display module, an interactive input module and a treatment process feedback module; the user interface display module is used to display various system operating data, treatment process information and treatment parameters to the operator; the interactive input module is used to receive instructions input by the operator; the treatment process feedback module is used to provide real-time treatment feedback to the operator.

[0127] A method for using a dual-channel shock wave therapy device based on a front-end mounted wave source handle, applied to a dual-channel shock wave therapy device system based on a front-end mounted wave source handle as described above, combined with Figure 3 As shown, the method for using the dual-channel shock wave therapy device includes:

[0128] S1, generates and outputs dual-path shock wave signals;

[0129] S2, adjusts and realizes shock output according to dual-channel shock wave signals;

[0130] S3, controlling the operation of the wave source terminal, the control terminal, the dual-way handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal;

[0131] S4, generating and executing parameter feedback adjustment instructions based on the patient's real-time feedback;

[0132] S5, adjusting system output parameters based on real-time feedback from patients;

[0133] S6, analyzing the treatment area according to the operator's operation and the output of the working parameters, and generating and executing the action area adjustment instruction;

[0134] S7, adjusting the treatment area corresponding to the patient based on the operation process and working parameters.

[0135] In summary, by setting the wave source terminal, control terminal, dual-channel handle terminal, feedback sensing terminal, action area adjustment terminal and interface terminal, the effective coordination of each module can be achieved, which is conducive to improving the accuracy and efficiency of the treatment process, and then adjusting the treatment parameters according to the patient's real-time feedback to improve the accuracy of the working parameters of the shock wave treatment process; by setting the signal generation module, signal output module and wave source control module, the accurate generation and stable output of the dual-channel shock wave signal can be ensured, which is conducive to providing a stable treatment signal source, thereby improving the reliability and consistency of the dual-channel shock wave during the treatment process; by setting the general control management module, equipment operation module and system monitoring module, the coordinated operation and monitoring of each terminal device can be achieved, which is conducive to controlling various parameters in the treatment process, thereby improving the simplicity and accuracy of the operation; by setting the signal receiving module, the dual-channel handle body and the output adjustment module, the handle output intensity and frequency can be adjusted according to the reception of the dual-channel shock wave signal, which is conducive to the precise adjustment of the treatment intensity and effect during the treatment process, thereby improving the personalization and pertinence of the treatment; by setting the real-time feedback The module, parameter analysis module and feedback instruction module can collect the patient's physical response data in real time and generate feedback instructions, which is conducive to automatically adjusting the treatment parameters according to the patient's physiological feedback, thereby optimizing the treatment plan and improving the personalization of the treatment; by setting the regional analysis module, the adjustment instruction generation module and the regional adjustment module, it can generate adjustment instructions according to the patient's real-time feedback and the parameters of the treatment area, which is conducive to accurately adjusting the treatment area, thereby improving the coverage and accuracy of the treatment area; by setting the user interface display module, the interactive input module and the treatment process feedback module, it can provide the operator with real-time treatment information and treatment process feedback, which is conducive to the operator to accurately control and adjust the treatment process, thereby improving the operator's treatment efficiency and operation convenience; by accurately modeling the treatment effect and comprehensively predicting multiple factors, it can evaluate and adjust various parameters in the treatment process in real time, which is conducive to adjusting the treatment plan according to the patient's physiological response, thereby improving the personalization and accuracy of the treatment, thereby helping to improve the overall treatment effect, ensuring that the patient obtains the best treatment results, while reducing side effects and discomfort.

[0136] Embodiment 2: This embodiment includes all the contents of Embodiment 1, and provides a dual-path shock wave therapy device system based on a front-end mounted wave source handle, combined with Figure 4 As shown, the regional analysis module includes a treatment area priority calculation submodule and an analysis and evaluation information generation submodule; the treatment area priority calculation submodule is used to calculate the treatment area priority based on the parameters input by the operator and the real-time working parameters; the analysis and evaluation information generation submodule is used to generate analysis and evaluation information based on the treatment area priority.

[0137] When the treatment area priority calculation submodule is working, the following formula is satisfied:

[0138]

[0139] Among them, R i represents the priority score of the i-th treatment area; during treatment, treatment is performed in descending order of the priority scores, and the analysis and evaluation information generation submodule generates analysis and evaluation information according to the priority of the treatment area and the treatment order; P i represents the weighting factor of the i-th treatment area. The closer the treatment area is to the patient's heart, the larger the weighting factor is. The specific value is set by the operator based on experience. i ) represents the maximum treatment angle of the handle of the shock wave in the i-th treatment area, and the value range is (0°, 90°]. This angle is the system preset angle, which is the angle between the straight line where the handle is located and the skin contact surface. The maximum treatment angle of the handle in each treatment area is analyzed and preset by the operator based on the patient's condition description and the body position of the treatment area; μ i represents the angle attenuation coefficient of the i-th treatment area. The larger the maximum treatment angle of the handle corresponding to the treatment area, the smaller the angle attenuation coefficient. The specific value is set by the operator based on experience; d i Represents the distance from the wave source to the i-th treatment area; N represents the total number of treatment areas of the patient.

[0140] Combination Figure 5 As shown, in order to more clearly understand and use the above priority score calculation formula, the following is explained by taking a calculation example as an example.

[0141] Known conditions: 3 treatment areas; P1=0.8, θ1=30°, μ1=0.05, d1=5m; P2=0.6, θ2=45°, μ2=0.04, d2=4m; P3=0.7, θ3=60°, μ3=0.03, d3=3m.

[0142] Calculation process:

[0143] P1·sin(θ1)·(1-μ1·d1)=0.8·sin(30°)·(1-0.05·5)=0.3;

[0144] P2·sin(θ2)·(1-μ2·d2)=0.6·sin(45°)·(1-0.04·4)=0.355;

[0145] P3·sin(θ3)·(1-μ3·d3)=0.7·sin(60°)·(1-0.03·3)=0.552;

[0146]

[0147] Therefore, the treatment order in the above example treatment process is: first treat area 3, then treat area 2, and finally treat area 1.

[0148] The following is the program code for the priority score calculation process:

[0149] import math

[0150] #parameter

[0151] regions=[

[0152] {"P":0.8,"theta":30,"alpha":0.05,"d":5},

[0153] {"P":0.6,"theta":45,"alpha":0.04,"d":4},

[0154] {"P":0.7,"theta":60,"alpha":0.03,"d":3}, ]

[0156] # Calculate the numerator

[0157] numerators = []

[0158] for region in regions:

[0159] P = region["P"]

[0160] theta = math.radians(region["theta"]) # Convert to radians

[0161] alpha = region["alpha"]

[0162] d = region["d"]

[0163] numerator=P*math.sin(theta)*(1-alpha*d)

[0164] numerators.append(numerator)

[0165] # Calculate the denominator

[0166] denominator = sum(numerators)

[0167] #Calculate weight

[0168] weights=[num / denominator for numin numerators]

[0169] # Output results

[0170] for i,weight in enumerate(weights):

[0171] print(f"Priority weight of region {i+1} R_{i+1}:{weight:.3f}")

[0172] In summary, by setting the calculation formula for the priority score, the priority of each area can be dynamically adjusted based on the physical characteristics and treatment needs of multiple treatment areas, which is conducive to achieving accurate priority sorting of treatment areas, and then reasonably allocating treatment resources and treatment intensity according to priority during the treatment process, which is conducive to optimizing the resource allocation of the treatment process, enhancing the treatment effect and improving the treatment efficiency.

[0173] The contents disclosed above are only preferred feasible embodiments of the present invention, and do not limit the protection scope of the present invention. Therefore, all equivalent technical changes made using the contents of the present invention description and drawings are included in the protection scope of the present invention. In addition, the elements therein can be updated as technology develops.

Claims

1. A dual-path shock wave therapy instrument system based on a front-end mounted wave source handle, characterized in that: It includes a wave source terminal, a control terminal, a two-way handle terminal, a feedback sensing terminal, an action area adjustment terminal and an interface terminal; the wave source terminal is used to generate and output a two-way shock wave signal; the two-way handle terminal is used to adjust and realize the shock output according to the two-way shock wave signal; the control terminal is used to control the operation of the wave source terminal, the control terminal, the two-way handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal; the feedback sensing terminal is used to generate and execute parameter feedback adjustment instructions according to the real-time feedback of the patient; the parameter feedback adjustment instructions are used to adjust the system output parameters based on the real-time feedback of the patient; the action area adjustment terminal is used to analyze the treatment area according to the operator's operation status and the output status of the working parameters, and generate and execute the action area adjustment instructions; the action area adjustment instructions are used to adjust the treatment area corresponding to the patient based on the operation process and the working parameters; the interface terminal is used to display the system's workflow and operation information, and provide human-computer interaction for the operator.

2. A dual-path shock wave therapy apparatus system based on a front-end mounted wave source handle as claimed in claim 1, characterized in that: The wave source terminal includes a signal generating module, a signal output module and a wave source control module; the signal generating module is used to generate a dual-path shock wave signal; the signal output module is used to output the generated dual-path shock wave signal to the dual-path handle terminal; the wave source control module is used to control the generation process and output process of the wave source signal.

3. A dual-path shock wave therapy apparatus system based on a front-end mounted wave source handle as claimed in claim 2, characterized in that: The control terminal includes a general control management module, a device operation module and a system monitoring module; the general control management module is used to control the coordinated operation of the wave source terminal, the dual-channel handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal; the device operation module is used to perform operation settings for each terminal device; the system monitoring module is used to monitor the operating status of each terminal, abnormal conditions during the treatment process and system parameters in real time.

4. A dual-path shock wave therapy apparatus system based on a front-end mounted wave source handle as claimed in claim 3, characterized in that: The dual-way handle terminal includes a signal receiving module, a dual-way handle body and an output adjustment module; the signal receiving module is used to receive the dual-way shock wave signal from the signal output module; the dual-way handle body is used to perform shock wave therapy on the patient; the output adjustment module is used to adjust the output intensity and frequency of the dual-way handle body according to the signal reception situation.

5. A dual-path shock wave therapy apparatus system based on a front-end mounted wave source handle as claimed in claim 4, characterized in that: The feedback sensing terminal includes a real-time feedback module, a parameter analysis module and a feedback instruction module; the real-time feedback module is used to collect the patient's physical response data in real time and generate feedback information; the parameter analysis module is used to analyze and generate feedback adjustment parameters based on the feedback information; the feedback instruction module is used to generate feedback instructions based on the feedback adjustment parameters and send the feedback instructions to the device operation module.

6. A dual-path shock wave therapy apparatus system based on a front-end mounted wave source handle as claimed in claim 5, characterized in that: The action area adjustment terminal includes a regional analysis module, an adjustment instruction generation module and a regional adjustment module; the regional analysis module is used to generate analysis and evaluation information based on the parameters input by the operator and the real-time working parameters; the adjustment instruction generation module is used to generate regional adjustment instructions according to the analysis and evaluation information; the regional adjustment module is used to adjust the patient's treatment area in real time according to the regional adjustment instructions.

7. A dual-path shock wave therapy apparatus system based on a front-end mounted wave source handle as claimed in claim 6, characterized in that: The interface terminal includes a user interface display module, an interactive input module and a treatment process feedback module; the user interface display module is used to display various system operation data, treatment process information and treatment parameters to the operator; the interactive input module is used to receive instructions input by the operator; the treatment process feedback module is used to provide real-time treatment feedback to the operator.

8. A method for using a dual-channel shock wave therapy device based on a front-end mounted wave source handle, applied to a dual-channel shock wave therapy device system based on a front-end mounted wave source handle as claimed in claim 7, characterized in that: The method for using the dual-path shock wave therapeutic apparatus includes: S1, generates and outputs dual-path shock wave signals; S2, adjusts and realizes shock output according to dual-channel shock wave signals; S3, controlling the operation of the wave source terminal, the control terminal, the dual-way handle terminal, the feedback sensing terminal, the action area adjustment terminal and the interface terminal; S4, generating and executing parameter feedback adjustment instructions based on the patient's real-time feedback; S5, adjusting system output parameters based on real-time feedback from patients; S6, analyzing the treatment area according to the operator's operation and the output of the working parameters, and generating and executing the action area adjustment instruction; S7, adjusting the treatment area corresponding to the patient based on the operation process and working parameters.

Images