Bionic energy field synthesis system and method based on red stone needle composite conversion bridge

Abstract

The invention discloses a bionic energy field synthesis system and method based on a red stone needle composite conversion bridge and vascular harmonic targeting. The system comprises an intelligent waveform synthesis engine, a composite transduction and execution module and a multi-mode sensing and feedback module. According to the composite module, a red stone needle-graphene functional layer is combined on a piezoelectric substrate to serve as a core, and a far infrared and broadband mechanical vibration field is cooperatively output under electric driving by utilizing the intrinsic characteristics of materials. The system innovatively takes a measurable blood vessel harmonic resonance state as a target, and dynamically adjusts an output field through double closed-loop control (a physical field loop and a physiological harmonic loop), so that preset physical characteristics can be reproduced, and a physiological system can be effectively guided to be optimized to a healthy state; a bionic energy field which can generate targeted coupling with an in-vivo harmonic resonance system through active synthesis is realized for the first time, normal form upgrading from empirical external treatment to precise biophysical intervention is realized, and a core solution is provided for a new generation of precise and personalized physical treatment equipment.

Description

Technical Field

[0001] This application belongs to the interdisciplinary fields of high-end medical devices, biomedical engineering, and physical therapy, specifically relating to a biomimetic energy field synthesis system and method based on a red Bianstone composite conversion bridge. It is a system and method capable of actively synthesizing and regulating complex biomimetic energy fields, and using the regulation of the human vascular harmonic resonance system as a specific target to achieve targeted biophysical therapy through "qi reaching the site of disease." Background Technology

[0002] The core mechanism of external treatments in Traditional Chinese Medicine, such as moxibustion and Bian stone therapy, lies in "regulating Qi," which means using external energy intervention to promote the flow of Qi to the affected area and achieve therapeutic effects. The efficacy stems from the comprehensive biophysical effects produced on human tissues by a composite energy field with specific spatiotemporal characteristics (such as far-infrared radiation of specific wavelengths or mechanical vibration / ultrasound of specific frequencies) generated during the treatment process.

[0003] The human arterial tree is a nonlinear resonant system. The fundamental frequency (approximately 1-2 Hz) generated by the heartbeat and its harmonics (2 Hz, 3 Hz... up to 10 Hz and above) together constitute a "harmonic resonance tree." Each organ corresponds to a specific dominant harmonic frequency. When the energy of a certain harmonic is insufficient or imbalanced, the blood perfusion and function of the corresponding organ will be affected. This provides a quantifiable foundational physical model for the "Qi and Blood Resonance" theory of "Qi deficiency" and "Qi stagnation" in Traditional Chinese Medicine, and has been recognized and awarded by the American Heart Association (AHA).

[0004] The complex energy fields (infrared, vibration, heat, and microchemical stimulation, etc.) generated by traditional moxibustion and Bian stone therapy may exert their effects by coupling with this resonant system and tuning misaligned harmonics. However, traditional methods have drawbacks such as uncontrollable and unquantifiable energy output, poor individual adaptability, and the presence of smoke or inconvenience in operation.

[0005] While existing electrotherapy devices can output single physical factors, their outputs are mostly simple, steady-state periodic signals, lacking the complexity, dynamism, and biological specificity equivalent to traditional therapies. Furthermore, they lack targeted design and verification methods for addressing the deep physiological target of "vascular harmonics" within the body. This significant difference is considered one of the important reasons why their clinical efficacy and patient experience are inferior to traditional therapies.

[0006] Therefore, there is an urgent need in this field for a new generation of intelligent treatment systems that can inherit the biocompatibility of traditional materials, achieve precise digital programming of energy fields, and target the regulation of vascular harmonics. This is undoubtedly the key to breaking through the current technological ceiling of physiotherapy equipment. Summary of the Invention

[0007] The purpose of this application is to overcome the shortcomings and deficiencies of the existing technology and provide a biomimetic energy field synthesis system and method based on red Bianstone composite conversion bridge. It takes the "arterial resonance tree" theory revealed by modern biophysics as the core target and deeply integrates the inherent biophysical properties of red Bianstone material with modern active drive, digital waveform synthesis and physiological closed-loop feedback technology to create a "programmable intelligent composite transducer". This realizes a paradigm shift in energy therapy from "empirical simulation" to "precise targeted physiological regulation", provides an engineering-feasible technical solution for the TCM theory of "qi reaching the disease site", and thus realizes the digitalization, standardization and personalization of energy therapy.

[0008] The first aspect of this application provides a biomimetic energy field synthesis system based on a red bianstone composite conversion bridge, designed using "physiological targeting" and "material-field coupling" as first principles, including: 1. An intelligent waveform synthesis engine, comprising a storage unit and a computing unit, wherein the storage unit is used to store at least one target biophysical field fingerprint data, the target biophysical field fingerprint data containing physical field feature information aimed at regulating the harmonic resonance state of blood vessels in a specific part of the human body; the computing unit is configured to run an inverse mapping algorithm to decompose the target biophysical field fingerprint data into a multi-channel time-varying driving signal; The intelligent waveform synthesis engine is configured to adjust the driving signal in a closed loop based on the actual field parameters monitored by the physical field sensing unit and the physiological response signal monitored by the blood flow harmonic detection unit, so that the synthesized field tends to the target fingerprint and the physiological indicators approach the preset health reference range, thus realizing a leap from "fuzzy experience simulation" to "precise targeted intervention".

[0009] Composite transducer and execution module: This is the core of the hardware innovation and the cornerstone of energy conversion in this application.

[0010] Piezoelectric drive substrate: As the main power source, it realizes the efficient conversion of electrical energy into mechanical vibration (inverse piezoelectric effect).

[0011] Red Bianstone Composite Functional Layer: Key Functional Material Layer. This layer is mainly composed of nano-red Bianstone powder, mixed with 0.3-1.0% biomass graphene, and firmly bonded to the piezoelectric substrate through a specific process (such as sintering). Its core functions are based on the intrinsic properties of the material: First, as a highly efficient infrared radiator and stress heat converter, it efficiently radiates far-infrared rays of 8-14μm under the synergistic excitation of graphene Joule heating and piezoelectric vibration stress; Second, as an acoustic modulation and coupling layer, its microcrystalline structure interacts with piezoelectric vibration, modulating the single-frequency driving vibration into a broadband mechanical wave rich in harmonic components, enhancing the matching ability with the complex acoustic impedance of biological tissues.

[0012] Multimodal sensing and feedback module: A sensory organ that achieves dual closed-loop operation. It includes a physical field sensing unit that monitors output field intensity, temperature, and spectrum, as well as a blood flow harmonic detection unit (e.g., a blood flow harmonic detection unit) that directly assesses the therapeutic target—vascular harmonic state.

[0013] The system's control logic is as follows: using the signal from the blood flow harmonic detection unit as the advanced optimization target and the signal from the physical field sensing unit as the basic control target, the intelligent engine dynamically adjusts the driving signal so that the final synthesized composite energy field can not only accurately match the preset physical characteristics, but also most effectively guide the physiological system (vascular harmonics) to evolve towards a healthy state.

[0014] This application discloses for the first time a complete technical solution that combines a "red Bianstone-graphene" composite functional layer as the core energy transducer with active piezoelectric drive, digital waveform synthesis, and vascular harmonic physiological closed-loop feedback, forming a completely new medical device system. Moreover, the material and the system are deeply coupled: instead of simply using red Bianstone, it is designed as an "active response layer" integrated with the piezoelectric actuator, so that its characteristics are fully utilized and modulated. Furthermore, this application clarifies the vague "qi regulation" as a measurable "tuned wave" and establishes a closed loop from energy output to harmonic feedback, realizing true targeted therapy. In summary, this application solves the technical problems of traditional electrotherapy devices having single energy properties, being unable to simulate complex natural fields, and lacking deep physiological feedback.

[0015] The second aspect of this application provides a control method for a biomimetic energy field synthesis system based on a red Bianstone composite conversion bridge, embodying a closed-loop intelligence of "setting physiological goals → synthesizing physical fields → verifying physiological responses → dynamic iterative optimization". The core lies in the fact that the control algorithm not only aims to reproduce the target fingerprint in terms of physical parameters of the output field, but also aims to generate measurable harmonic state optimization directly related to the treatment purpose at the physiological level, realizing a closed loop of quantitative evaluation and adaptive adjustment of the treatment process. The method includes the following steps: S1: Acquire or set target biophysical field fingerprint data designed to modulate the harmonic resonance state of the target blood vessel; S2: The target fingerprint is solved into a driving signal for the composite transducer and execution module by using a reverse mapping algorithm; S3: Output a drive signal to drive the composite transducer and actuator module to work and output a composite physical field to act on biological tissue; S4: Real-time acquisition of monitoring data from the physical field sensing unit and physiological data from the blood flow harmonic detection unit; S5: Calculate the error e_phy between the actual physical field parameters and the target fingerprint, and the error e_bio between the current vascular harmonic state and the healthy reference interval; S6: Dynamically adjust the driving signal according to the weighted total error to achieve closed-loop control; the weighted total error e_total=α·e_phy+β·e_bio; where α and β are weighting coefficients.

[0016] A third aspect of this application also provides a treatment head module, comprising a composite transducer and execution module of the biomimetic energy field synthesis system as described above, and the physical field sensing unit integrated therewith.

[0017] A fourth aspect of this application also provides a non-volatile storage medium storing a computer program, which, when executed by a processor, implements the steps of the control method described above.

[0018] In a fifth aspect of this application, the application of the above-described system or method in relevant medical devices is provided.

[0019] To provide a clearer understanding of this application, the specific embodiments of this application will be described below in conjunction with the accompanying drawings. Attached Figure Description

[0020] Figure 1 This is a schematic diagram illustrating the overall system architecture and working principle of one embodiment of this application.

[0021] Figure 2 This is a cross-sectional view of the layered structure of a composite transducer and execution module according to an embodiment of this application.

[0022] Figure 3 This is a flowchart of a control method according to an embodiment of this application.

[0023] Figure 4 This is a schematic diagram illustrating the test results of a control method according to an embodiment of this application.

[0024] 100 Intelligent waveform synthesis engine; 110 Storage unit; 120 Computing unit; 200 Composite transducer and execution module; 210 Piezoelectric drive substrate; 220 Red Bianstone composite functional layer; 300 Multimodal sensing and feedback module; 310 Physical field sensing unit; 320 Blood flow harmonic detection unit. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of this application clearer, the embodiments of this application will be described in further detail below with reference to the accompanying drawings.

[0026] It should be understood that the described embodiments are merely some, not all, of the embodiments of this application. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the scope of protection of the embodiments of this application.

[0027] In the following description, when referring to the accompanying drawings, unless otherwise indicated, the same numbers in different drawings represent the same or similar elements. In the description of this application, it should be understood that the terms "first," "second," "third," etc., are used only to distinguish similar objects and are not necessarily used to describe a specific order or sequence, nor should they be construed as indicating or implying relative importance. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances. The singular forms "a," "the," and "the" used in this application and the appended claims are also intended to include the plural forms, unless the context clearly indicates otherwise. The word "if" as used herein can be interpreted as "when," "when," or "in response to determination."

[0028] Furthermore, in the description of this application, unless otherwise stated, "multiple" means two or more. "And / or" describes the relationship between related objects, indicating that three relationships can exist. For example, A and / or B can represent: A alone, A and B simultaneously, or B alone. The character " / " generally indicates that the preceding and following related objects have an "or" relationship.

[0029] Please see Figure 1 This is a schematic diagram illustrating the overall system architecture and working principle of the biomimetic energy field synthesis system based on the red bian stone composite conversion bridge proposed in this application. The system includes: The intelligent waveform synthesis engine 100 includes a storage unit 110 and a computing unit 120. The storage unit 110 is used to store at least one target biophysical field fingerprint data, which contains physical field feature information designed to regulate the harmonic resonance state of blood vessels in specific parts of the human body. The computing unit 120 is configured to run an inverse mapping algorithm to solve the target biophysical field fingerprint data into a multi-channel time-varying driving signal. The composite transducer and actuator module 200, electrically connected to the intelligent waveform synthesis engine 100, is used to receive the drive signal and output a composite physical field; such as Figure 2 As shown, the composite transducer and actuator module 200 includes a piezoelectric drive substrate 210 and a red bian stone composite functional layer 220 firmly bonded to at least one of its working surfaces. The red bian stone composite functional layer 220 contains nano red bian stone powder and biomass graphene. The multimodal sensing and feedback module 300 includes a physical field sensing unit 310 integrated near the composite transducer and actuator module 200, and a blood flow harmonic detection unit 320 for non-invasive monitoring of the harmonic state of the blood vessels in the affected tissue. The intelligent waveform synthesis engine 100 is configured to adjust the driving signal in a closed loop based on the actual field parameters monitored by the physical field sensing unit 310 and the physiological response signal monitored by the blood flow harmonic detection unit 320, so that the synthesized field tends to the target fingerprint and the physiological indicators approach the preset health reference range.

[0030] The “healthy reference range” for the vascular harmonics (such as the H3 / H1 ratio range) can be found in published medical literature (Wang, Y. et al. J. Biomech. 2020, 105, 109777).

[0031] In the red bian stone composite functional layer, the biomass graphene has a mass percentage of 0.3%–1.0%, the average particle size of the nano red bian stone powder is less than 1 μm, and the thickness of the functional layer is 50–500 μm.

[0032] The physical field characteristic information intended to regulate the vascular harmonic resonance state includes the mechanical wave modulation frequency, modulation depth, and low-frequency fluctuation mode of thermal radiation intensity associated with at least one target harmonic frequency among the 1st to 10th harmonics of the human arterial tree.

[0033] The piezoelectric drive substrate generates a basic mechanical vibration of 20kHz-100kHz under the excitation of the drive signal; the red bian stone composite functional layer responds to the mechanical vibration and the Joule heat generated by the biomass graphene under electric drive, and radiates far-infrared rays in the 8-14μm band, and modulates the basic mechanical vibration into a mechanical wave output with broadband characteristics.

[0034] In the composite physical field, the distribution frequency band of mechanical wave energy is from 0.5Hz to 3000Hz, and its far-infrared radiation intensity has low-frequency fluctuation characteristics of 0.01Hz to 0.5Hz.

[0035] The blood flow harmonic detection unit is a photoplethysmography pulse wave sensor or a Doppler ultrasound probe. Its analysis module is configured to perform a fast Fourier transform on the acquired pulse wave signal and extract the energy percentage of the first N harmonics, where N is an integer from 3 to 10.

[0036] The inverse mapping algorithm is a model predictive control algorithm or an iterative learning control algorithm, and its loss function includes a weighted sum of the physical field output error and the vascular harmonic state error.

[0037] A second aspect of this application provides a control method for a biomimetic energy field synthesis system based on a red bianstone composite conversion bridge, the method comprising the following steps: S1: Acquire or set target biophysical field fingerprint data designed to modulate the harmonic resonance state of the target blood vessel; S2: The target fingerprint is solved into a driving signal for the composite transducer and execution module by using a reverse mapping algorithm; S3: Output a drive signal to drive the composite transducer and actuator module to work and output a composite physical field to act on biological tissue; S4: Real-time acquisition of monitoring data from the physical field sensing unit and physiological data from the blood flow harmonic detection unit; S5: Calculate the error e_phy between the actual physical field parameters and the target fingerprint, and the error e_bio between the current vascular harmonic state and the healthy reference interval; S6: Dynamically adjust the driving signal according to the weighted total error to achieve closed-loop control; the weighted total error e_total=α·e_phy+β·e_bio; where α and β are weighting coefficients.

[0038] The following examples are used to further illustrate the technical solution of this application: Example 1: Fabrication, performance, and physical basis of the composite transducer module. This example clarifies the implementation of the core hardware and its first-principles basis: Step 1.1, Preparation process: Step 1: Substrate preparation: Select PZT-5H piezoelectric ceramic sheet (20mm×20mm×0.5mm, d33≈650pC / N), with silver electrodes pre-plated on both sides.

[0039] Step 2: Slurry preparation: Nano-sized red bianstone powder with an average particle size D50 = 0.8 μm is uniformly mixed with few-layer biomass graphene at a ratio of 99.5:0.5 (mass ratio). Silica sol binder, dispersant (polycarboxylate), and high-temperature resistant inorganic binder (silica sol) are added, and the mixture is ball-milled for 4 hours to form a uniform slurry with a solid content of approximately 65%.

[0040] Step 3: Molding and Sintering: The paste is screen-printed onto the electrode surface of the PZT substrate 210, with a wet film thickness of 200 μm. It is then dried at 85°C and placed in a muffle furnace, heated to 650°C at a rate of 5°C / min, and held for 30 minutes for sintering. After natural cooling, a densely bonded red bianstone composite functional layer 220 is formed, with a final thickness of approximately 150 μm. The sintering temperature was selected based on the following criteria: it must be higher than the binder curing temperature, but much lower than the PZT depolarization temperature (greater than 300°C) and the decomposition temperature of the main component of red bianstone (calcite), to ensure stable material properties.

[0041] Step 4: Integration. A miniature thin-film thermocouple is attached to the surface of functional layer 220 using a micro-dispensing process. Finally, the entire layer is covered with a flexible silicone protective layer that is high-temperature resistant, infrared transparent, and insulating.

[0042] Step 1.2: Performance Characterization and Physical Mechanisms Fourier transform infrared (FTIR) spectrometry, equipped with an integrating sphere, revealed that the functional layer exhibits an average emissivity of 0.93 in the 8-14 μm band at 40-60℃, confirming its excellent far-infrared radiation capability. The principle behind this is that the lattice vibration spectrum of red bian stone matches the absorption spectrum of human tissue; the addition of graphene enhances the overall electrothermal conversion efficiency and heat conduction uniformity, providing a stable and efficient thermal excitation source.

[0043] Regarding mechanical vibration response, the surface vibration of the functional layer was measured using a laser Doppler vibrometer under a 40kHz sinusoidal voltage input to the PZT substrate. Compared to the bare PZT wafer without the functional layer, the coated module showed little change in vibration output near the 40kHz main peak, but new and considerable vibration components appeared in the 15-25kHz and 80-120kHz frequency bands, indicating that the functional layer modulates and enhances the vibration spectrum. The principle is as follows: the piezoelectric substrate provides the basic vibration energy; the non-uniform microstructure, internal friction, and interface effect with the substrate of the red bianstone composite layer generate nonlinear modulation and harmonic generation on the input vibration, which is equivalent to a "mechanical frequency extender".

[0044] Regarding thermo-mechanical synergy, when a driving voltage (generating vibration) and a heating current passing through the graphene are applied simultaneously, the measured total infrared radiation intensity is higher than the simple superposition of heating or vibration alone. The principle is that a "sound-induced heating" or "stress-induced heating" coupling effect is presumably present, with mechanical vibration promoting heat transfer and radiation efficiency within the functional layer.

[0045] Regarding acoustic response characteristics, the module was fixed, a 40kHz sinusoidal electrical signal was input to the PZT substrate, and the normal vibration velocity of the functional layer surface was measured using a laser Doppler vibration meter (LDV).

[0046] Example 2: System Integration and Targeted Control Process. This example details how the system achieves vascular harmonic targeting: 2.1 System Initialization and Target Setting: The user places the treatment head (integrated module 200 and blood flow harmonic detection unit 310) near the radial artery at the wrist. The system first collects a 1-minute resting pulse wave through the blood flow harmonic detection unit, and obtains the harmonic energy distribution "H1:H2:H3:H4" through FFT analysis. Assuming the analysis finds that the user's "H3 / H1" ratio is below the healthy lower limit (e.g., <0.15), the intelligent engine retrieves the target fingerprint for "increasing H3 energy" from the database. This fingerprint may include: a mechanical wave carrier modulated at 3Hz (corresponding to the H3 frequency), and a specific thermal radiation fluctuation pattern.

[0047] 2.2 Initialization and Open-Loop Drive: The user initiates treatment. The computing unit 120 first runs an open-loop drive: based on the target fingerprint, it generates initial drive signals using a lookup table method (a set of PWM waves is used to control the Joule heating of the graphene, and a set of 40kHz carrier waves, amplitude modulated at 2Hz / 3Hz, is used to drive the PZT). The drive module operates for 10 seconds.

[0048] 2.3 Dual closed-loop control process (e.g.) Figure 3 (as shown) Inner Loop (Physical Field Loop): The engine generates an initial drive signal based on the target fingerprint (e.g., a 40kHz carrier wave driven by a 3Hz amplitude-modulated voltage signal to drive the PZT, while a DC voltage drives the graphene heating). Module 200 begins operation. Integrated temperature and vibration sensors (230) provide real-time feedback data `T_act"V_act"`. The error "e_phy" between the target "T_target" and "V_target" is calculated. A proportional-integral (PI) controller is used to rapidly reduce "e_phy" to stabilize the output field at the target physical state.

[0049] Outer ring (physiological harmonic ring): Simultaneously, the blood flow harmonic detection unit acquires a new pulse wave every 30 seconds and calculates the real-time "H3 / H1" ratio "R_current". The physiological target "R_target" is set to the median of the healthy range (e.g., 0.18). The physiological error "e_bio = R_target - R_current" is calculated.

[0050] Dual-loop synergy: The final adjustment of the overall controller is "u = K_phye_phy + K_bioe_bio", where "K_phye_phy" and "K_bioe_bio" are gain coefficients. In the initial stages of treatment, "K_phye_phy" has a higher weight to ensure rapid establishment of the output field. Once the physical field stabilizes, the weight of "K_bioe_bio" gradually increases. The system then fine-tunes parameters such as modulation depth and heating power in the drive signal based on the actual changes in "H3 / H1". Even if this slightly increases "e_phy", as long as "e_bio" continues to decrease (i.e., H3 energy is increasing), it is considered a better treatment path. This process achieves adaptive optimization prioritizing physiological effects.

[0051] 2.4 Safety Protection: The control logic has multiple built-in protections. If the temperature monitored by the thermocouple exceeds 45°C, the heating drive will be immediately cut off; if the phase of the PZT drive current changes drastically (indicating resonant frequency drift or fault), the automatic frequency tracking (AFC) program or alarm will be triggered.

[0052] The control logic of the biomimetic energy field synthesis system in this application is as follows: the signal of the blood flow harmonic detection unit is used as the advanced optimization target, the signal of the physical field sensing unit is used as the basic control target, and the driving signal is dynamically adjusted through the intelligent engine so that the final synthesized composite energy field can not only accurately match the preset physical characteristics, but also most effectively guide the physiological system (vascular harmonics) to evolve towards a healthy state.

[0053] Example 3: Effectiveness verification comparative experiment, used to demonstrate the advantages of this application compared with traditional technologies, comparative tests were conducted: The test groups included: Group A (this application): using the system of this application, the "improved microcirculation" mode was activated (the goal was to optimize H2 and H3 harmonics); Group B (traditional moxibustion): using handheld moxibustion with moxa sticks; Group C (commercially available electronic moxibustion device): using an electrically heated moxibustion device without an open flame; Group D: (ceramic heating film) a comparative module was prepared, whose structure was exactly the same as that of Example 1, except that the "red Bianstone-graphene composite functional layer" was replaced with "a commercially available ceramic heating film of equal thickness and similar far-infrared emissivity (such as...)". (Coating). The exact same "Improve Microcirculation" targeted control program was run on the comparison module.

[0054] Subjects and Methods: Treatment was applied for 20 minutes to the same area on the forearm of healthy volunteers. Before, during, and after treatment, local blood flow harmonic changes were monitored using high-precision PPG, and temperature distribution was recorded using an infrared thermal imager.

[0055] The test results are as follows (see appendix for details). Figure 4 ): Harmonic changes: After treatment, the total local "H2+H3" harmonic energy in group A increased by an average of 28% compared to before treatment, and the increase was synchronized with the closed-loop adjustment of the system. No significant trend changes in harmonic energy were observed in groups B and C (changes <5%).

[0056] Temperature field: Both groups A and B produced a warm sensation, with a surface temperature rise of approximately 2-3°C. However, the infrared thermal image of group A showed a more uniform temperature distribution and subtle fluctuations corresponding to the modulation frequency. The temperature rise in group C was not significant.

[0057] Subjective sensations: Group A participants generally reported "deeper penetration of the heat sensation and a feeling of soreness and distension," which was highly similar to the "deqi" sensation experienced during traditional moxibustion. Group B mainly experienced a superficial heat sensation. Group C experienced a localized micro-vibration sensation.

[0058] Although the comparison module can generate similar base temperature and vibration, PPG monitoring shows that its effect on improving the "total energy of H2+H3 harmonics" is less than 30% of that of Group A (this application), and the subjects' subjective feeling is only "surface warmth" without "gaining qi".

[0059] The above tests verified that the effectiveness of this application does not solely stem from the physical factors of "heating" and "vibration," but rather relies heavily on the unexpected bio-coupling effect generated between the unique material properties of the red Bianstone composite functional layer (such as spectral matching with human tissue and nonlinear modulation characteristics) and the actively synthesized field. This demonstrates that the system possesses capabilities in actively regulating local vascular harmonic energy that traditional devices lack, and can produce a composite sensation closer to traditional therapies, reflecting its "biomimetic" and "targeted" characteristics.

[0060] Compared with the closest existing technology, this application achieves a leap from "fuzzy empirical simulation" to "precise targeted intervention", with the following significant advancements: 1. Novelty: This paper discloses for the first time a complete technical solution that uses a "red bian stone-graphene" composite functional layer as the core energy transducer, combined with active piezoelectric drive, digital waveform synthesis and vascular harmonic physiological closed-loop feedback, to form a brand-new medical device system.

[0061] 2. Inventiveness: The concept of this application is not obvious. Its inventiveness is reflected in: ① Deep coupling of materials and systems: Instead of simply using red Bian stone, it is designed as an "active response layer" integrated with the piezoelectric actuator, so that its characteristics can be fully utilized and modulated; ② Clear definition of the target and realization of closed loop: The vague "qi regulation" is clarified into a measurable "tuned wave", and a closed loop from energy output to harmonic feedback is established, realizing true targeted therapy; ③ It solves the technical problems of traditional electrotherapy equipment having single energy properties, being unable to simulate complex natural fields, and lacking deep physiological feedback.

[0062] 3. Practicality: This application provides a complete technical path that combines the essence of Traditional Chinese Medicine (TCM) theory (complex energy fields) with modern biophysical detection technology and precision control engineering, solving the standardization problem. The system enables individualized and quantitative treatment, with objectively assessable efficacy, laying a core technological foundation for developing a new generation of high-end intelligent medical equipment with profound TCM connotations and recognized by modern medicine. The system adopts a modular design, with hardware based on mature processes, ensuring high reliability. Closed-loop control greatly improves safety and efficacy consistency. It provides a practical core solution for developing intelligent physiotherapy equipment that combines the connotations of TCM theory with the characteristics of modern precision medicine, possessing prospects for industrialization and clinical application.

[0063] The third embodiment of this application provides a treatment head module, which includes a composite transducer and execution module of the biomimetic energy field synthesis system as described above, and the physical field sensing unit integrated therewith.

[0064] The fourth embodiment of this application provides a non-volatile storage medium storing a computer program, which, when executed by a processor, implements the steps of the control method described above.

[0065] In a fifth aspect of this application, the application of the above-described system or method in relevant medical devices is provided.

[0066] The device embodiments described above are merely illustrative. The components described as separate parts may or may not be physically separate, and the components shown as units may or may not be physical units; that is, they may be located in one place or distributed across multiple network units. Some or all of the modules can be selected to achieve the purpose of this application according to actual needs. Those skilled in the art can understand and implement this without any inventive effort.

[0067] It should also be noted that the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus. Unless otherwise specified, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes that element.

[0068] In summary, this application concretizes the regulation of "Qi" in Traditional Chinese Medicine into a precise, engineered intervention on the vascular harmonic resonance system, providing a quantifiable, replicable, and personalized modern technological path. Any modifications, equivalent substitutions, or improvements based on the core concept of this application—namely, "using a red Bianstone-graphene composite functional layer as the core conversion bridge medium, combining active driving and intelligent control to synthesize a composite physical field, and using the vascular harmonic state as the targeted regulation target for closed-loop feedback"—such as adjusting the composite layer material ratio, using other piezoelectric materials, or applying different adaptive control algorithms, should be included within the scope of protection of this application, as long as they do not depart from its essence. The scope of protection of this application is determined by the claims.

Claims

1. A biomimetic energy field synthesis system based on red bane stone composite conversion bridge, characterized in that, The application relates to a bio-physical field synthesis system, comprising: an intelligent waveform synthesis engine, including a storage unit and a calculation unit, the storage unit is used for storing at least one target bio-physical field fingerprint data, the target bio-physical field fingerprint data contains physical field characteristic information aiming at adjusting the harmonic resonance state of blood vessels in a specific part of a human body; the calculation unit is configured to run an inverse mapping algorithm to calculate the target bio-physical field fingerprint data into a multi-channel time-varying driving signal; a composite transduction and execution module, which is electrically connected with the intelligent waveform synthesis engine, is used for receiving the driving signal and outputting a composite physical field; the composite transduction and execution module comprises a piezoelectric driving substrate and a red jasper composite functional layer which is firmly combined with at least one working surface of the piezoelectric driving substrate, and the red jasper composite functional layer contains nano red jasper powder and biomass graphene; a multi-modal sensing and feedback module, which comprises a physical field sensing unit integrated near the composite transduction and execution module and a blood flow harmonic detection unit used for non-invasive monitoring of the harmonic state of blood vessels of an affected tissue; wherein the intelligent waveform synthesis engine is configured to adjust the driving signal in a closed loop according to the actual field parameters monitored by the physical field sensing unit and the physiological response signal monitored by the blood flow harmonic detection unit, so that the synthesized field tends to be the target fingerprint and the physiological index tends to be close to a preset healthy reference interval. In the red jasper composite functional layer, the mass percentage of the biomass graphene is 0.3%-1.0%, the average particle size of the nano red jasper powder is less than 1 mu m, and the thickness of the functional layer is 50-500 mu m. The physical field characteristic information aiming at adjusting the harmonic resonance state of blood vessels includes a mechanical wave modulation frequency, a modulation depth and a low-frequency fluctuation mode of thermal radiation intensity which are associated with at least one target harmonic frequency in the first to tenth harmonics of a human arterial tree. The piezoelectric driving substrate generates a basic mechanical vibration of 20 kHz-100 kHz under the excitation of the driving signal; the red jasper composite functional layer radiates far infrared rays in the 8-14 mu m wave band in cooperation with the Joule heat generated by the biomass graphene under electric driving, and modulates the basic mechanical vibration into a mechanical wave output with a wide frequency characteristic. In the composite physical field, the distribution frequency band of mechanical wave energy is 0.5 Hz to 3000 Hz, and the far infrared radiation intensity has a low-frequency fluctuation characteristic of 0.01 Hz to 0.5 Hz.

2. The biomimicry energy field synthesis system based on the hematite composite conversion bridge according to claim 1, characterized in that: The blood flow harmonic detection unit is an optical plethysmography pulse wave sensor or a Doppler ultrasound probe, and the analysis module thereof is configured to perform fast Fourier transform on the collected pulse wave signal to extract the energy proportion of the first N harmonics, wherein N is an integer of 3 to 10.

3. The biomimicry energy field synthesis system based on red bane stone composite conversion bridge of claim 2, wherein, The inverse mapping algorithm is a model predictive control algorithm or an iterative learning control algorithm, and the loss function thereof contains the weighted sum of a physical field output error and a blood vessel harmonic state error.

4. The biomimicry energy field synthesis system based on the hematite composite conversion bridge of claim 1, wherein: The application further relates to a bio-physical field synthesis method, comprising the following steps: S1: obtaining or setting target bio-physical field fingerprint data aiming at adjusting the harmonic resonance state of target blood vessels; S2: calculating the target fingerprint into a driving signal for the composite transduction and execution module through an inverse mapping algorithm; and S3: outputting the composite physical field through the composite transduction and execution module.

5. The biomimicry energy field synthesis system based on the red bane stone composite conversion bridge of claim 1, wherein: ​ 6. The biomimicry energy field synthesis system based on the hematite composite conversion bridge of claim 1, wherein, ​ 7. The synthetic system of bionic energy fields according to any one of claims 1 to 6, characterized in that, ​ 8. A control method of a bionic energy field synthesis system according to any one of claims 1 to 7, characterized by, ​ ​ ​ S3: outputting a driving signal to drive the composite transduction and execution module to work and output a composite physical field to act on biological tissue; S4: collecting monitoring data of the physical field sensing unit and physiological data of the blood flow harmonic detection unit in real time; S5: calculating an error e_phy between an actual parameter of the physical field and a target fingerprint, and an error e_bio between a current blood vessel harmonic state and a healthy reference interval; S6: dynamically adjusting the driving signal according to a weighted total error to realize closed-loop control; the weighted total error e_total = a·e_phy + b·e_bio; wherein a and b are weight coefficients.

9. A treatment head module, comprising: A composite transduction and execution module comprising the bionic energy field synthesis system according to any one of claims 1-7 and the physical field sensing unit integrated therewith.

10. A non-volatile storage medium storing a computer program, characterized in that, The computer program is executed by a processor to implement the steps of the control method according to claim 8.

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