A quantum resonance transmitter system

Abstract

The application discloses a quantum resonance emitter system, relates to the field of health conditioning, and comprises an electromagnetic sensor, a control chip, a spiral field emission source, an OFDM multi-frequency orthogonal frequency division oscillator and a ceramic structure; the spiral field emission source is connected with the OFDM multi-frequency orthogonal frequency division oscillator; the spiral field emission source is axially aligned with the OFDM multi-frequency orthogonal frequency division oscillator; the spiral field emission source is further coupled with the ceramic structure to realize multi-frequency resonance; the electromagnetic sensor is connected with the control chip; the electromagnetic sensor is used for collecting electromagnetic parameters of the ceramic structure and feeding back the electromagnetic parameters to the control chip; the control chip is used for monitoring the working state of the spiral field emission source and the waveform of the OFDM multi-frequency orthogonal frequency division oscillator and adjusting the spiral field emission source and the OFDM multi-frequency orthogonal frequency division oscillator according to the electromagnetic parameters. The application can realize non-invasive anti-aging.

Description

Technical Field

[0001] This application relates to the field of health conditioning, and in particular to a quantum resonance emitter system. Background Technology

[0002] Among the challenges facing human health, the decline in mitochondrial function is particularly concerning, leading to weakened energy metabolism and accelerated aging. Current health promotion technologies largely focus on nutritional supplementation and external interventions, but a non-invasive, anti-aging method is lacking. Summary of the Invention

[0003] The purpose of this application is to provide a quantum resonance emitter system that enables non-invasive anti-aging.

[0004] To achieve the above objectives, this application provides the following solution.

[0005] This application provides a quantum resonance emitter system, including...

[0006] Electromagnetic sensor, control chip, spiral field emission source, OFDM multi-frequency quadrature frequency divider oscillator, and ceramic structure.

[0007] The spiral field emission source is connected to the OFDM multi-frequency quadrature frequency divider oscillator; the spiral field emission source and the OFDM multi-frequency quadrature frequency divider oscillator are axially aligned; the spiral field emission source is also coupled to the ceramic structure to achieve multi-frequency resonance; the electromagnetic sensor is connected to the control chip; the electromagnetic sensor is used to collect the electromagnetic parameters of the ceramic structure and feed the electromagnetic parameters back to the control chip; the control chip is used to monitor the working status of the spiral field emission source and the waveform of the OFDM multi-frequency quadrature frequency divider oscillator and adjust the spiral field emission source and the OFDM multi-frequency quadrature frequency divider oscillator according to the electromagnetic parameters.

[0008] In one embodiment, the helical field emission source is a helical field coil.

[0009] In one embodiment, the quantum resonance emitter system further includes a central electromagnetic column.

[0010] The ceramic structure and the spiral field emission source are sequentially mounted on the central electromagnetic column.

[0011] In one embodiment, the quantum resonance emitter system further includes an amplifier.

[0012] The amplifier is embedded between the output of the OFDM multi-frequency quadrature frequency divider oscillator and the input of the helical field emission source.

[0013] In one embodiment, the amplifier is made of ceramic.

[0014] In one embodiment, the quantum resonance emitter system further includes a semiconductor packaging structure.

[0015] The electromagnetic sensor, the control chip, the spiral field emission source, the OFDM multi-frequency quadrature frequency divider oscillator, and the ceramic structure are all encapsulated within the semiconductor package structure.

[0016] In one embodiment, the semiconductor packaging structure is made of a material with a gradient coefficient of thermal expansion; the semiconductor packaging structure is sealed by an anodic bonding process.

[0017] In one embodiment, the control chip is grounded via a conductive rubber pad.

[0018] In one embodiment, the electromagnetic sensor is a Hall sensor or a piezoelectric probe.

[0019] In one embodiment, the control chip uses a PID control algorithm to adjust the output power of the helical field emission source and the drive current of the OFDM multi-frequency quadrature frequency divider oscillator based on the electromagnetic parameters.

[0020] Based on the specific embodiments provided in this application, the following technical effects are disclosed.

[0021] This application provides a quantum resonance emitter system that achieves quantum resonance through a helical field emission source and an OFDM (Orthogonal Frequency Division Multiplexing) multi-frequency orthogonal frequency divider oscillator. This promotes the transformation of water in the human body into charged structured water. The OFDM multi-frequency orthogonal frequency divider oscillator stimulates mitochondrial membrane fluidity, increases ATP synthesis efficiency and melatonin secretion, clears aging mitochondria, and generates new functional mitochondria, thereby improving health and achieving anti-aging effects. This non-ionized energy form does not damage tissue structure, achieving non-invasive anti-aging. Attached Figure Description

[0022] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0023] Figure 1 This is an exploded view of the internal structure of a quantum resonance emitter system according to an embodiment of this application.

[0024] Figure 2A front view of a quantum resonance emitter system provided in an embodiment of this application.

[0025] Figure labels: Central electromagnetic column-1, ceramic structure-2, semiconductor package structure-3, spiral field coil-4, OFDM multi-frequency quadrature frequency divider oscillator-5. Detailed Implementation

[0026] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0027] This application can improve cellular energy metabolism by activating mitochondria, thereby achieving anti-aging and health-promoting effects.

[0028] To make the above-mentioned objectives, features and advantages of this application more apparent and understandable, the application will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0029] like Figure 1 and Figure 2 As shown, this application provides a quantum resonance emitter system, including: an electromagnetic sensor, a control chip, a helical field emission source, an OFDM multi-frequency orthogonal frequency divider oscillator 5, and a ceramic structure 2; the helical field emission source is connected to the OFDM multi-frequency orthogonal frequency divider oscillator 5; the helical field emission source and the OFDM multi-frequency orthogonal frequency divider oscillator 5 are axially aligned; the helical field emission source is also coupled to the ceramic structure 2 to achieve multi-frequency resonance; the electromagnetic sensor is connected to the control chip; the electromagnetic sensor is used to collect the electromagnetic parameters of the ceramic structure 2 and feed the electromagnetic parameters back to the control chip; the control chip is used to monitor the working state of the helical field emission source and the waveform of the OFDM multi-frequency orthogonal frequency divider oscillator 5 and adjust the helical field emission source and the OFDM multi-frequency orthogonal frequency divider oscillator 5 according to the electromagnetic parameters. This application adopts an OFDM multi-frequency orthogonal frequency divider oscillation architecture, enabling multiple frequencies to be output simultaneously and synchronously to form a stable superposition field.

[0030] The control chip is grounded via a conductive rubber pad. Based on the electromagnetic parameters, the control chip uses a PID control algorithm to adjust the output power of the helical field emission source and the drive current of the OFDM multi-frequency quadrature oscillator 5. Through a closed-loop feedback circuit, the control chip monitors the operating status of the helical field emission source (such as impedance changes and temperature drift) and the output waveform of the OFDM multi-frequency quadrature oscillator 5 in real time, dynamically adjusting key parameters such as the helical field frequency, acoustic frequency, output power, and operating temperature to ensure the accuracy and stability of quantum resonance emission. The control chip is housed within a package structure and grounded via a conductive rubber pad to prevent interference. The control chip uses an industrial-grade MCU (such as an ARM Cortex-M series) suitable for real-time data processing. The control chip must support high-speed ADC / DAC (analog-to-digital / digital-to-analog conversion) to process feedback signals and have PWM (pulse width modulation) output capability to drive the helical field coil 4 and the OFDM multi-frequency quadrature oscillator 5.

[0031] The components on the circuit board are connected by copper foil traces to form the following closed-loop feedback circuit.

[0032] Monitoring end: OFDM multi-frequency quadrature frequency divider oscillator 5 generates a reference signal, which is transmitted by spiral field coil 4 and then captured in real time by embedded sensors (such as Hall sensors or piezoelectric probes integrated on the circuit board) based on the changes in electromagnetic parameters (such as impedance or resonant frequency) in the ceramic plate area.

[0033] Control end: Sensor data is fed back to the control chip (processing chip). The control chip uses a built-in algorithm to compare preset parameters (such as the resonant frequency threshold) and generate adjustment commands. The built-in algorithm is a PID control algorithm.

[0034] Execution end: After the instruction is amplified by the amplifier, the output power of OFDM multi-frequency quadrature frequency divider oscillator 5 or the driving current of spiral field coil 4 is dynamically adjusted to form a closed-loop system of "monitoring-calculation-adjustment".

[0035] The PID (Proportional-Integral-Derivative) control algorithm is used to dynamically adjust the output based on real-time errors (such as the deviation between the actual frequency and the target frequency). For example, if the resonant frequency deviates, the control chip increases the coil current (P) proportionally, accumulates historical errors (I), predicts the trend of change (D), and achieves microsecond-level response.

[0036] The core idea of ​​PID control is to comprehensively calculate the control quantity based on the current error, the cumulative error (historical), and the trend of error change (future). Its continuous-time theoretical expression is as follows.

[0037] .

[0038] Where: u(t) is the controller output (adjustment command, ultimately corresponding to the set value of coil current or oscillator power). e(t) is the real-time error = set value - measured value. For example: e(t) = f 目标 -f 实际 (t). K p This is the proportional gain. It directly amplifies the current error and determines the system's response speed. K i This is the integral gain. It eliminates the accumulated steady-state error from historical data. K d This is the differential gain. It suppresses the trend of error variation, improves system stability, and reduces overshoot.

[0039] In microprocessors, algorithms must run in a discretized manner. The system operates at a fixed period (e.g., a sampling period T corresponding to a "microsecond response"). s The process involves "monitoring, calculation, and adjustment".

[0040] Step 1: Sampling and error calculation (monitoring).

[0041] At t=kT s Time (k is the kth sampling period).

[0042] 1. Read sensor data: Obtain the actual value PV of the controlled variable. k (such as the actual resonant frequency f) k ).

[0043] 2. Calculate the instantaneous error: e k =SP-PV k Where SP is the preset target value (e.g., f). 目标 ).

[0044] Step 2: PID calculation (operation).

[0045] The control chip executes the following discrete PID formula (positional algorithm).

[0046] .

[0047] To make expressions clearer, they are usually defined.

[0048] proportional term P out =K p· e k Integral term I out =K i ·T s ·Σe j =K i ·T s ·(e k +I k-1 ). Among them, I k-1 This is the cumulative integral value from the previous period. The differential term D.out =K d ·(e k -e k-1 ) / T s .

[0049] This is the controller's output value at the k-th sampling time. It represents the control command, calculated by the PID algorithm, that needs to be sent to the actuator (such as a power amplifier or current driver). This command will ultimately be translated into a specific signal that adjusts the coil current or oscillator power.

[0050] Let be the instantaneous error calculated at the current k-th sampling time. Its calculation formula is: =Set value (SP) - Current measured value (PV_k). For example, if the goal is to maintain a resonant frequency of 100kHz, and the current sensor reading is 98kHz, then =100kHz-98kHz=2kHz. This is the direct input for PID calculation.

[0051] The sampling period of the system is the fixed time interval between two adjacent samples (or control loops). It determines the speed of the controller's "monitor-calculate-adjust" process. The "microsecond-level response" you mentioned requires... Very short (e.g., a few microseconds to tens of microseconds).

[0052] To measure the error in a discrete time series The general index representation. j is a variable representing any sampling time. In the integral term ∑e j In this context, it represents the set of all error values ​​from the initial time (j=0) to the current time (j=k), used to calculate the cumulative sum of historical errors.

[0053] This represents the error value at the previous (k-1) sampling time. It is primarily used to calculate the rate of change of the error, i.e., the difference (E) in the differential term. k -E k-1 This is used to determine whether the error is increasing, decreasing, or remaining stable, thereby providing a "predictive" damping effect.

[0054] Therefore, control output: u k =P out +I out +D out .

[0055] Step 3: Output and Execution (Adjustment).

[0056] Calculated u kIt is a numerical quantity that represents the "command" that needs to be given to the executing agency.

[0057] 1. Output: This instruction is converted into a physical signal (such as voltage or current) by an amplifier.

[0058] 2. Execution: The amplified signal drives the OFDM multi-frequency quadrature oscillator 5 (adjusting output power) or the spiral field coil 4 (adjusting drive current), thereby changing the physical state of the system (frequency / field strength) and attempting to minimize the error e. k Reset to zero.

[0059] Step 4: Closed-loop cycle.

[0060] The system enters the next sampling period k+1 and repeats "step 1 → step 3" to form a closed loop of "monitoring-calculation-adjustment".

[0061] Multi-parameter coordination: Simultaneously adjust the frequency (through the oscillator) and the field strength (through the coil current) to ensure the stability of the quantum resonance state.

[0062] In practical applications, the spiral field emission source is a spiral field coil 4. The spiral field emission source and the OFDM multi-frequency orthogonal frequency divider oscillator 5 are connected by a cable and are axially aligned. Under the drive of high-frequency alternating current, the spiral structure generates an axially propagating rotating electromagnetic field, which can couple with the optical rotation of biological macromolecules (such as DNA and proteins) or water molecule clusters. The spiral field emission source is fixed on an aluminum alloy support and is used to generate spiral field fluctuations as a quantum resonance emission source.

[0063] The OFDM multi-frequency orthogonal frequency divider oscillator 5 is adhered to the bottom of the aluminum alloy support via thermally conductive silicone. It is used to generate ultrasonic and infrasonic waves of specific frequencies (ultrasonic wave frequency range: 20kHz–1MHz; infrasonic wave frequency range: 0.01–20Hz). The sound waves and the spiral field form a cross-scale energy coupling system: the sound waves cause periodic changes in the density of the medium, modulate the phase and amplitude of the spiral electromagnetic field, and form a temporally controlled composite field. Under a specific frequency combination, the system enters the nonlinear resonance region, triggering harmonic, frequency division, or chaotic resonance phenomena, inducing the water molecule system to transition from a chaotic state to an ordered state. This process is similar to a "self-organized critical state", prompting a large number of water molecules to synchronously enter a low-energy stable arrangement state - i.e., "structured water".

[0064] Specific frequency combinations include infrasound, ultrasound, far-infrared, terahertz, and a fifth specific frequency between 20 and 20,000 Hz. Among these, far-infrared and terahertz, along with certain specific frequencies, generate photoelectric and piezoelectric effects in mitochondria, and resonate with the body's 70% water content to form charged, highly oxygenated hexagonal hydroxyl water (H₂O). 3 O 2-This, in turn, enhances the mitochondrial membrane and cell membrane potential, and high oxygen levels improve the ATP production efficiency of the mitochondrial electron transport chain (ETC). Infrasound provides resonance to the heart and brain in all 79 organs, blood, nerves, and lymphatic circulation. All cells in the human body have vibration frequencies between 1.2 and 8.2 Hz, and specific frequencies bring specific resonances, such as clearing serotonin and β-amyloid protein from the brain, blood vessel walls, nerves, and lymphatic circulation of sugar-damaged and toxic zombie cells, using specific 30-50 Hz ultrasound.

[0065] The quantum resonance emitter system also includes: a central electromagnetic column 1; the ceramic structure 2 and the spiral field emission source are sequentially mounted on the central electromagnetic column 1. The central electromagnetic column 1 is an aluminum alloy support. The ceramic structure 2 is made of rare-earth naphthalene ceramic.

[0066] The quantum resonance emitter system also includes an amplifier; the amplifier is embedded between the output of the OFDM multi-frequency quadrature oscillator 5 and the input of the helical field emission source. The amplifier is made of ceramic. The amplifier is embedded between the output of the OFDM multi-frequency quadrature oscillator 5 and the input of the helical field emission source, and is mechanically fixed using a threaded interface. It is made of ceramic and is used to enhance the signal strength generated by the OFDM multi-frequency quadrature oscillator 5. The amplifier has an automatic gain control function, dynamically adjusting the gain according to changes in load impedance to prevent overload or distortion and ensure effective energy transfer.

[0067] The quantum resonance emitter system also includes a semiconductor package structure 3. The electromagnetic sensor, control chip, spiral field emission source, OFDM multi-frequency quadrature frequency divider oscillator 5, and ceramic structure 2 are all encapsulated within the semiconductor package structure 3. The semiconductor package structure 3 is made of a material with a gradient coefficient of thermal expansion. The semiconductor package structure 3 is sealed using anodizing. The semiconductor package structure 3 employs multi-layer ceramic encapsulation, with each module fixed to the package cavity by welding. The outer shell of the package is made of a material with a gradient coefficient of thermal expansion and is sealed using anodizing to ensure airtightness and thermal stability. The semiconductor package structure 3 encapsulates the entire system into a rigid body, facilitating practical applications and ensuring system stability. The electromagnetic sensor is a Hall sensor or a piezoelectric probe. Figure 1 The semiconductor packaging structure 3 (resin packaging) is a functional expression rather than an appearance. The outermost layer of the device is an integrally molded resin packaging structure, which completely wraps and solidifies the central electromagnetic column 1, rare earth ceramic material, spiral field coil 4 and system base plate integrating key circuits inside, forming a robust and sealed protective whole.

[0068] The purpose of this invention is to provide a novel quantum resonance emitter system. By using a spiral field as the emission source and combining it with multi-frequency technologies such as ultrasound, infrasound, terahertz, and far-infrared, precise quantum resonance is formed. This promotes the conversion of 70% of the water in the human body into charged structured water. Furthermore, the piezoelectric and photoelectric effects generated by the spiral field coil provide the necessary electrons to cells and mitochondria, ultimately enhancing the ATP production efficiency and melatonin secretion of mitochondria, promoting mitochondrial energy production, and thus achieving the effects of improving human health and anti-aging.

[0069] The quantum resonance emitter system provided in this application can activate the structural water in the human body, enhance the conductivity and electron transport capacity of water, and release energy to further enhance the ATP production capacity of mitochondria and the secretion efficiency of melatonin, thereby effectively promoting human health.

[0070] This application achieves multi-frequency resonance modulation (resonance between light waves and water) through the coupling of a helical field coil and rare-earth ceramics. Targeting the biochemical effect of "human body water transforming into structural water," customized feedback parameters (e.g., a frequency range of 1–10 MHz) are implemented, exceeding the conventional range of traditional electromagnetic control. This quantum resonance emitter system can be applied to various forms of health promotion devices, such as health bracelets and mitochondrial activators. Users can wear or operate the device to create resonance with the human body, stimulating endogenous energy to promote health and combat aging.

[0071] The frequency ranges cited in the feedback parameters are merely illustrative references; the actual range is much broader. Specifically, "feedback parameters" refer to a series of physical quantities that directly reflect the electromagnetic resonance state and indirectly reflect the response of the biological medium, such as "real-time resonant frequency," "resonant quality factor (Q value)," "load complex impedance," and "local field strength." It is through the customized monitoring and feedback of these unconventional physical quantities, which are strongly correlated with biochemical effects, that the system can achieve precise adjustments "beyond the conventional range of traditional electromagnetic control."

[0072] The external excitation sources for the piezoelectric effect are ultrasound and infrasound (mechanical), while the in vivo targets are piezoelectric materials such as collagen and the cytoskeleton. The resulting physical process involves mechanical stress leading to charge separation, generating microcurrents that are sensitive to current, and mitochondria directly providing energy, promoting ATP synthesis. The external excitation sources for the photoelectric effect are terahertz and far-infrared (electromagnetic), while the in vivo targets are hydrogen bonds common to macromolecules such as structural water and proteins. The resulting physical process involves quantum resonance leading to collective excitation, converting energy into electronic kinetic energy or an excited state.

[0073] This application has the following effects.

[0074] Structured water generation and activation: Under the influence of far-infrared and terahertz resonances generated by helical fields and sound waves, large molecular clusters in ordinary water (usually composed of thousands of water molecules) are excited and separated by far-infrared and terahertz excitation, first producing small molecular clusters of water molecules, and finally becoming monomolecules of water. These molecules then recombine with each other through hydrogen bonds, and the hydrogen bond angle of water molecules expands from the conventional 104.5° to 109°, forming hexagonal hydroxyl structured water. This type of "structured water" can more easily cross the cell membrane aquaporin (AQP1), accelerating the exchange of substances inside and outside the cell, and improving electron transport efficiency and redox reaction rate. Through helical field and quantum resonance technology, 70% of the water in the human body is promoted to form structured water, and its conductivity and electron transport capacity are improved.

[0075] Enhanced Mitochondrial Function: Ultrasound stimulates mitochondrial membrane fluidity through mechanical vibration, promoting the synergistic operation of electron transport chain complexes and improving ATP synthesis efficiency; Infrasound resonates with the Schumann resonance frequency of the Earth, regulating the oscillation rhythm of cellular calcium ions, affecting mitochondrial calcium uptake, and thus regulating energy production; Terahertz waves and far-infrared radiation (which can be generated by helical field excitation) resonate with the vibrational modes of biomolecules, particularly acting on protein secondary structures (such as α-helices), enhancing enzyme activity; Under the synergistic effect of multiple frequencies, the mitochondrial membrane potential increases, the level of reactive oxygen species rises moderately, triggering the balance between mitophagy and biosynthesis, clearing aging mitochondria, and generating new functional mitochondria, thereby achieving the effect of improving health.

[0076] Non-invasive technology: The system uses non-ionizing energy forms (radio frequency, sound waves, and far-infrared waves below safety limits), which do not damage tissue structure and are non-invasive and painless.

[0077] The product performance test table shown in Table 1 will be used for further explanation. Clarification will be provided regarding the human body conditioning values.

[0078] +4400 or above (five stars) - indicates that the instrument is effective in this area.

[0079] +42000 or above (four stars) - indicates that the instrument has a significant improvement effect in this aspect.

[0080] +32000 or above (3 stars) - indicates that the instrument has a moderate therapeutic effect in this area (improves treatment).

[0081] +23000 and above (two stars) - indicates that the instrument is effective for daily health care and functional purposes in this area.

[0082] +22000 or above (one star) - indicates that the instrument improves health in this aspect, but the effect is only perceived after a relatively long time (minor effect).

[0083] +1000~+9000 indicates that the instrument does not significantly improve health in this area, but it does not harm the human body.

[0084] -10~+900- indicates that the instrument requires vigilance and attention regarding health improvement in this area, representing a health threshold.

[0085] A positive value indicates that the instrument is beneficial in this regard; a negative value indicates that the instrument has a negative effect on this regard.

[0086] Table 1 Product Performance Test Table

[0087] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0088] This document uses specific examples to illustrate the principles and implementation methods of this application. The descriptions of the above embodiments are only for the purpose of helping to understand the methods and core ideas of this application. Furthermore, those skilled in the art will recognize that, based on the ideas of this application, there will be changes in the specific implementation methods and application scope. Therefore, the content of this specification should not be construed as a limitation of this application.

Claims

1. A quantum resonance emitter system, characterized in that, The quantum resonance emitter system includes: an electromagnetic sensor, a control chip, a helical field emission source, an OFDM multi-frequency orthogonal frequency divider oscillator, and a ceramic structure; The spiral field emission source is connected to the OFDM multi-frequency quadrature frequency divider oscillator; the spiral field emission source and the OFDM multi-frequency quadrature frequency divider oscillator are axially aligned; the spiral field emission source is also coupled to the ceramic structure to achieve multi-frequency resonance; the electromagnetic sensor is connected to the control chip; the electromagnetic sensor is used to collect the electromagnetic parameters of the ceramic structure and feed the electromagnetic parameters back to the control chip; the control chip is used to monitor the working status of the spiral field emission source and the waveform of the OFDM multi-frequency quadrature frequency divider oscillator and adjust the spiral field emission source and the OFDM multi-frequency quadrature frequency divider oscillator according to the electromagnetic parameters.

2. The quantum resonance emitter system according to claim 1, characterized in that, The spiral field emission source is a spiral field coil.

3. The quantum resonance emitter system according to claim 2, characterized in that, Also includes: Central electromagnetic column; The ceramic structure and the spiral field emission source are sequentially mounted on the central electromagnetic column.

4. The quantum resonance emitter system according to claim 1, characterized in that, Also includes: Amplifier; The amplifier is embedded between the output of the OFDM multi-frequency quadrature frequency divider oscillator and the input of the helical field emission source.

5. The quantum resonance emitter system according to claim 4, characterized in that, The amplifier is made of ceramic.

6. The quantum resonance emitter system according to claim 1, characterized in that, Also includes: Semiconductor packaging structure; The electromagnetic sensor, the control chip, the spiral field emission source, the OFDM multi-frequency quadrature frequency divider oscillator, and the ceramic structure are all encapsulated within the semiconductor package structure.

7. The quantum resonance emitter system according to claim 6, characterized in that, The semiconductor packaging structure is made of a material with a gradient coefficient of thermal expansion; the semiconductor packaging structure is sealed by an anodic bonding process.

8. The quantum resonance emitter system according to claim 1, characterized in that, The control chip is grounded via a conductive rubber pad.

9. The quantum resonance emitter system according to claim 1, characterized in that, The electromagnetic sensor is a Hall sensor or a piezoelectric probe.

10. The quantum resonance emitter system according to claim 1, characterized in that, The control chip uses a PID control algorithm to adjust the output power of the helical field emission source and the drive current of the OFDM multi-frequency quadrature frequency divider oscillator based on the electromagnetic parameters.

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