Hydrogen ion-rich electronic active water device

Abstract

The invention provides a hydrogen-ion-rich electronic active water device, and relates to the technical field of hydrogen-ion-rich active water preparation. Comprising an electrolytic cell, a resonant circuit unit, a permanent magnet unit, a resonant cavity, an ultrasonic generator, a nano bubble stabilizing layer, a far infrared radiant panel, a tunable microwave generator and a controller, wherein parallel titanium-based platinum-plated electrodes in the electrolytic cell are matched with a resonant circuit, and the electrolytic efficiency is optimized to generate hydrogen ions; the electrolytic tank outer wall permanent magnet unit forms a vertical magnetic field to assist electrolysis to improve electron activity. The resonant cavity is connected with a water outlet, an ultrasonic generator at the bottom of the resonant cavity is matched with a nano-bubble stabilizing layer on the inner wall to generate and stabilize nano-bubbles to enhance water activity, a far infrared radiant panel outside a water outlet pipeline and a downstream tunable microwave generator improve water structural properties, and a controller starts the microwave generator after the ultrasonic generator stops running for a preset time period. And when the operation time of the ultrasonic waves exceeds the preset time, the microwave power is increased, the treatment effect is dynamically optimized, and the high-activity electronic water rich in hydrogen ions is prepared.

Description

Technical Field

[0001] The present invention relates to the technical field of hydrogen-rich ion active water preparation, and in particular to a hydrogen-rich ion electronic active water device. Background Art

[0002] Existing water electrolysis technologies typically rely on a single electrolysis process to produce hydrogenated water. This has limited efficiency, and the generated hydrogen molecules tend to aggregate into large bubbles and quickly dissipate, resulting in low dissolved hydrogen concentrations, poor stability, and short-lived activity. Conventional electrode structures (such as non-porous or coated electrodes) lack effective reaction area, limiting ion exchange efficiency and hydrogen production rates.

[0003] At the same time, the lack of effective intervention in the structure of water molecule clusters limits the improvement of water activity. While magnetic field-assisted electrolysis can optimize ion migration, static or non-uniform magnetic field layouts make it difficult to fully coordinate the electrolysis reaction. Furthermore, traditional systems lack sufficient control over bubble size and stability, making it difficult for nanoscale active hydrogen to persist in water.

[0004] In terms of energy field synergy, existing technologies often use energy forms such as ultrasound, microwaves, or far infrared in isolation, lacking precise matching of timing and frequency. For example, the active sites generated by the ultrasonic cavitation effect will decay rapidly if they are not utilized in a timely manner, and if the microwave energy is disconnected from the ultrasonic frequency, not only will it fail to synergize and enhance the effect, but it may also interfere with the resonant state of water molecules. The lack of a system control strategy leads to the risk of conflict when multiple energy fields are running (such as overheating caused by simultaneous operation), and it is impossible to dynamically adjust parameters (such as microwave power) according to real-time working conditions, resulting in energy waste or fluctuations in effect. Summary of the Invention

[0005] In view of this, the technical problem to be solved by the present invention is: how to provide a hydrogen-rich ion electronic active water device to achieve efficient preparation of hydrogen-rich ion active water.

[0006] To achieve the above-mentioned object, the present invention proposes a hydrogen-ion-rich electronically active water device, comprising an electrolytic cell, a resonant circuit unit, a permanent magnet unit, a resonant cavity, an ultrasonic generator, a nanobubble stabilization layer, a far-infrared radiation plate, a tunable microwave generator, and a controller;

[0007] The electrolytic cell is provided with at least one pair of titanium-based platinum-plated electrodes arranged in parallel, with a spacing between the titanium-based platinum-plated electrodes ranging from 3 mm to 8 mm. The resonant circuit unit includes an adjustable inductor and a capacitor, and the resonant circuit unit is electrically connected to the titanium-based platinum-plated electrodes.

[0008] The permanent magnet units are arranged in a rectangular array on the outer wall of the electrolytic cell, and the direction of the magnetic field formed by the permanent magnet units is perpendicular to the plane of the titanium-based platinum-plated electrode;

[0009] The resonant cavity is connected to the water outlet of the electrolytic cell, the ultrasonic generator is connected to the bottom of the resonant cavity, the nanobubble stabilization layer is composed of silicon dioxide nanotubes arranged in a rectangular array, and the nanobubble stabilization layer is attached to the inner wall of the resonant cavity;

[0010] The far-infrared radiation plate is made of a ceramic material doped with rare earth elements, covers the outer surface of the water outlet pipe, the water outlet pipe is connected to the water outlet, and the tunable microwave generator is installed downstream of the far-infrared radiation plate.

[0011] Furthermore, a porous structure is provided on the surface of the titanium-based platinum-plated electrode, the pore size of the porous structure is 5 μm-20 μm, and the porosity of the porous structure is 30%-60%.

[0012] Furthermore, the permanent magnet unit is composed of alternatingly arranged NdFeB magnet blocks and ferrite magnet blocks, and the spacing between adjacent NdFeB magnet blocks and ferrite magnet blocks is 1 / 5-1 / 3 of the length of the titanium-based platinum-plated electrode.

[0013] Furthermore, the operating frequency of the ultrasonic generator is defined as f u , define the operating frequency of the tunable microwave generator as f m ;

[0014] Among them, f m =α×f u , the f u The value range of is 28kHz-100kHz, and the value range of α is 1.1-1.3.

[0015] Furthermore, the controller is configured to: when the ultrasonic generator stops operating, delay for a preset time period before driving the tunable microwave generator to start operating.

[0016] Furthermore, the controller is configured to increase the operating power of the tunable microwave generator when the operating time of the ultrasonic generator exceeds a preset time.

[0017] Furthermore, the controller is configured to: increase the operating power of the tunable microwave generator specifically includes:

[0018] P m =P0×[1+0.05×(T u -T0) / T0], where P m is the increased working power of the tunable microwave generator, P0 is the reference power of the tunable microwave generator, T uis the operating time of the ultrasonic generator, and T0 is the preset time.

[0019] Furthermore, the preset time period is 5s-8s.

[0020] Compared with the related art, the hydrogen-ion-rich electronic active water device proposed in the present invention has the following beneficial effects:

[0021] (1) The parallel arrangement of titanium-based platinum-plated electrodes in the electrolytic cell, combined with a resonant circuit unit consisting of an adjustable inductor and capacitor, optimizes electrolysis efficiency and facilitates hydrogen ion production. The permanent magnet unit is arranged in a rectangular array on the outer wall of the electrolytic cell. It is composed of alternating neodymium iron boron magnets and ferrite magnets, forming a magnetic field perpendicular to the electrode plane, which can assist the electrolysis process and enhance electronic activity.

[0022] (2) The resonance cavity is connected to the water outlet of the electrolytic cell, and the operating frequency of the ultrasonic generator at the bottom is f u At 28kHz-100kHz, a nanobubble stabilization layer composed of a rectangular array of silicon dioxide nanotubes is attached to the inner wall, which can generate and stabilize nanobubbles and enhance the activity of water.

[0023] (3) The far-infrared radiation plate covering the outer surface of the water outlet pipe is made of a ceramic material doped with rare earth elements. The tunable microwave generator downstream can further improve the structure and properties of the water. The tunable microwave generator is started 5s-8s after the ultrasonic generator stops running to avoid interference. When the ultrasonic generator runs for longer than the preset time T0, the operating power of the tunable microwave generator is increased, which can dynamically optimize the treatment effect and ensure the efficient and stable operation of the device, thereby producing highly active electronic water rich in hydrogen ions. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 This is a schematic structural diagram of a hydrogen ion-rich electronic active water device according to an embodiment of the present invention;

[0025] Figure 2 This is an electrical connection diagram of a hydrogen ion-rich electronic active water device according to an embodiment of the present invention;

[0026] Figure 3 This is an electrical connection diagram of a hydrogen ion-rich electronic active water device according to an embodiment of the present invention. DETAILED DESCRIPTION

[0027] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0028] See Figure 1-Figure 3As shown, the present invention proposes a hydrogen-rich ion electronic active water device, which includes an electrolytic cell 11, a resonant circuit unit 12, a permanent magnet unit 13, a resonant cavity 14, an ultrasonic generator 15, a nanobubble stabilization layer 16, a far-infrared radiation plate 17, a tunable microwave generator 18 and a controller 19.

[0029] At least one pair of parallel titanium-based platinum-plated electrodes 111 is provided inside the electrolytic cell 11. The spacing between the titanium-based platinum-plated electrodes 111 ranges from 3 mm to 8 mm. The resonant circuit unit 12 includes an adjustable inductor and a capacitor. The resonant circuit unit 12 is electrically connected to the titanium-based platinum-plated electrodes.

[0030] The surface of the titanium-based platinum-plated electrode 111 is porous, with a pore size of 5-20 μm and a porosity of 30%-60%. The electrodes are arranged in parallel, with spacing strictly limited to a specific range. This design ensures a uniform electric field gradient within the electrolytic cell 11, effectively preventing polarization caused by excessive local current density, while providing an optimized migration path for charged particles.

[0031] The electrode substrate is made of titanium, and its surface platinum plating gives the electrode excellent electrocatalytic activity and chemical inertness, significantly reducing the overpotential of the hydrolysis reaction while also being able to withstand the strong oxidizing environment generated during the electrolysis process, ensuring the long-term stability of the electrode. In particular, the porous microstructure constructed on the electrode surface significantly increases the effective electrochemical reaction area, substantially improving the dissociation efficiency of water molecules at the electrode interface. These microporous structures also serve as preferential nucleation sites for hydrogen bubbles, which is beneficial for controlling the size and distribution of bubble generation. This characteristic forms a key link with the subsequent ultrasonic fragmentation process, creating favorable conditions for the generation of micron-sized initial bubbles suitable for treatment with the nanobubble stabilization layer 16.

[0032] The electrode achieves dynamic tuning of the operating frequency through the resonant circuit unit 12, creating a synergistic effect with the perpendicular magnetic field generated by the permanent magnet unit 13. The Lorentz force under the action of the magnetic field can directional guide the migration trajectory of hydrogen ions generated by electrolysis, reducing disordered collision losses during ion migration.

[0033] Permanent magnet units 13 are arranged in a rectangular array on the outer wall of electrolytic cell 11. The magnetic field generated by permanent magnet units 13 is perpendicular to the plane of the titanium-plated platinum electrode. Permanent magnet units 13 are composed of alternating neodymium iron boron magnets and ferrite magnets. The spacing between adjacent neodymium iron boron magnets and ferrite magnets is 1 / 5-1 / 3 the length of the titanium-plated platinum electrode.

[0034] The permanent magnet units 13 are arranged in a rectangular array on the outer wall of the electrolytic cell 11, with the magnetic field direction strictly perpendicular to the plane of the internal titanium-based platinum-plated electrode. This directional magnetic field layout mainly affects the migration behavior of charged particles during the electrolysis process: under the action of the DC electric field, the hydrogen ions and hydroxide ions produced by water electrolysis are deflected along the direction of the magnetic field by the Lorentz force, forming a spiral motion trajectory, which significantly increases the residence time of the ions in the electrode area. On the one hand, this effect increases the effective collision probability of ions with the electrode surface, enhancing the electrolysis efficiency; on the other hand, it slows the adhesion speed of bubbles on the electrode surface, inhibiting the formation of large bubble clusters.

[0035] The magnet selection of the permanent magnet unit 13 adopts an alternating arrangement structure of neodymium iron boron magnet blocks and ferrite magnet blocks. This mixed configuration forms a gradient-changing magnetic field intensity distribution in the electrolysis area through the spatial combination of materials with different magnetic permeabilities. Specifically, the neodymium iron boron magnet provides a high-intensity static magnetic field to ensure the basic Lorentz force effect; the ferrite magnet adjusts the magnetic flux conduction to make the magnetic field intensity of adjacent electrode areas transition smoothly. This design not only avoids the ion movement retardation caused by excessive local magnetic field, but also eliminates the reaction blind area in the weak magnetic field area, thereby achieving an overall improvement in the reaction uniformity in the electrolytic cell 11. The vertical magnetic field has a directional guiding effect on the diffusion path of electrolysis by-products (such as hydroxyl free radicals), reducing the deposition rate of the passivation layer on the electrode surface, thereby maintaining the long-term stability of the active surface of the electrode, and providing a continuous and efficient supply of electrolysis products for subsequent water treatment links.

[0036] The resonant cavity 14 is connected to the water outlet 21 of the electrolytic cell 11 , the ultrasonic generator 15 is connected to the bottom of the resonant cavity 14 , and the nanobubble stabilization layer 16 is composed of silicon dioxide nanotubes arranged in a rectangular array. The nanobubble stabilization layer 16 is attached to the inner wall of the resonant cavity 14 .

[0037] The resonant cavity 14 is connected to the water outlet 21 of the electrolytic cell 11. Its primary function is to amplify the acoustic energy effect through a specific geometric structure. This cavity is designed to acoustically match the ultrasonic generator 15. When the ultrasonic generator 15 is operating, a standing wave field distribution is formed within the cavity, causing the primary hydrogen bubbles in the hydrogen-containing aqueous solution output from the electrolytic cell 11 to undergo periodic compression and expansion. This high-frequency pressure oscillation induces the violent collapse of cavitation nuclei, generating localized high-pressure shock waves, which break the millimeter-scale bubbles into a submicron-scale dispersion, creating the foundation for subsequent nano-processing.

[0038] The nanobubble stabilization layer 16 is attached to the inner wall of the resonant cavity 14. Its core consists of a rectangular array of silica nanotubes. This structure captures microbubbles flowing through the resonant cavity 14 through the capillary force of the nanotubes, forcing the bubbles to reshape within the tube diameter. The negative charge carried by the tube wall forms a double-layer repulsive barrier with the hydrogen bubble interface, effectively preventing the coalescence of adjacent bubbles. This dual mechanism of physical confinement and electrostatic stabilization works synergistically to maintain the hydrogen bubble size at the nanometer scale, overcoming the inherent drawback of rapid gas escape in traditional hydrogen dissolution technology.

[0039] The resonant cavity 14 first utilizes ultrasonic cavitation to achieve primary bubble refinement, and the nanobubble stabilization layer 16 then achieves size lock through interface engineering. This phased treatment approach avoids excessive fragmentation or runaway thermal effects caused by a single energy input while ensuring sufficient interfacial activity for the nanohydrogen bubbles. In the hydrogen-containing water treated in this process, hydrogen molecules enter the subsequent far-infrared radiation and microwave excitation stages in a highly dispersed state, significantly enhancing the reactivity and half-life of hydrogen ions in the functionalized water.

[0040] The far-infrared radiation plate 17 is made of a ceramic material doped with rare earth elements. The far-infrared radiation plate 17 covers the outer surface of the water outlet pipe 22. The water outlet pipe 22 is connected to the water outlet 21. The tunable microwave generator 18 is installed downstream of the far-infrared radiation plate 17.

[0041] Far-infrared radiation panels 17 are installed on the outer surface of the water outlet pipe 22. Their primary function is to reconstruct the molecular structure of water through electromagnetic radiation in a specific wavelength band. The panels are composed of ceramic materials doped with rare earth elements. When water flows through the covered area, the material is thermally excited and continuously releases far-infrared radiation with a wavelength concentrated in the 8-14 μm range. This wavelength band resonates with the inherent vibrational frequency of water molecules, causing the hydrogen bond network between water molecules to weaken in a targeted manner. This energy transfer effect effectively dissociates the tightly connected state of traditional water molecule clusters, reorganizing the large molecular clusters into discrete units with a low degree of polymerization, creating favorable conditions for the subsequent active penetration of hydrogen ions.

[0042] This device performs molecular-scale activation within the overall process chain. After the hydrogen-containing water stream, treated by the resonant cavity 14 and nanobubble stabilization layer 16, enters the far-infrared active zone, the radiation energy first acts on the electron cloud surrounding the water molecules, increasing the molecular kinetic energy by enhancing the probability of electron transitions. Simultaneously, the nanohydrogen bubbles generate surface plasmon resonance in the infrared radiation field, significantly reducing the bubble interfacial tension and accelerating the dissolution and penetration of hydrogen into the aqueous phase. This dual mechanism of action jointly promotes the efficient binding of hydrogen ions with small water clusters.

[0043] The far-infrared radiation plate 17 and the tunable microwave generator 18 form a progressive energy field relationship. After the radiation plate completes the basic molecular structure adjustment, the water body has an optimized energy absorption threshold before entering the microwave excitation zone. In particular, the far-infrared pretreatment reduces the rotational inertia of the water molecules, allowing the subsequent microwave frequency to stimulate the dipole resonance of hydrogen ions at a lower energy input. This synergistic design not only avoids molecular damage caused by a single high-frequency energy source, but also ensures the continuity of energy transfer throughout the activation process, ultimately forming an ion-electron active water system with a stable reduction potential.

[0044] The ultrasonic generator 15 is located at the bottom of the resonant cavity 14. Its primary function is to induce cavitation in the water through high-frequency mechanical vibrations. When the generator is operating, acoustic energy of a specific frequency creates a periodic pressure oscillation field within the cavity, prompting the generation of a large number of transient cavitation nuclei in the hydrogen-containing aqueous solution flowing through this area. These cavitation nuclei violently collapse under the influence of the acoustic pressure, generating localized high-pressure shock waves and microjets that effectively fragment the primary hydrogen bubbles produced by electrolysis, reducing them to a submicron-scale dispersion. This process significantly increases the specific surface area of ​​the gas-liquid interface, laying the physical foundation for subsequent nanoscale stabilization.

[0045] A tunable microwave generator 18 is installed downstream of the far-infrared radiation panel 17. Its core function is to stimulate a directional resonant response in the water molecules. The device's output frequency precisely matches the rotational energy level transition threshold of the water molecules, causing the previously treated small molecule clusters and dissolved hydrogen ions to produce high-frequency dipole oscillations. This resonance effect imparts additional kinetic energy to the hydrogen ions, facilitating their penetration through the hydrogen bonds between water molecules and forming a highly reactive hydronium ion complex. Simultaneously, the microwave field polarizes the double layer at the nanobubble interface, enhancing the efficiency of hydrogen molecule dissolution and penetration into the aqueous phase.

[0046] The two devices achieve timed collaborative operation through controller 19. The control system, according to a preset program, delays the activation of the microwave generator for a specific period after the ultrasonic wave ceases operation, ensuring that the cavitation bubbles complete nanostabilization before receiving electromagnetic excitation. The microwave operating frequency is linked to the ultrasonic frequency at a fixed ratio, forming a closed energy transfer loop between molecular-scale vibrational energy and the macroscopic cavitation effect. The power adaptive module dynamically adjusts the microwave output intensity based on changes in the ultrasonic operation duration, compensating for thermodynamic losses caused by rising water temperatures and maintaining the energy balance of the activation reaction. This collaborative mechanism avoids energy field interference effects and achieves the simultaneous optimization of hydrogen ion activity and stability.

[0047] Define the operating frequency of the ultrasonic generator 15 as f u , define the operating frequency of the tunable microwave generator 18 as f m , where f m =α×f u . Specifically, f uThe value range of is 28kHz-100kHz, and the value range of α is 1.1-1.3. This frequency correlation mechanism achieves optimal coupling of energy transfer through spectrum matching. The ultrasonic generator 15 operates within the set frequency range, inducing cavitation effect in the resonance cavity 14 to form a microbubble interface; the tunable microwave generator 18 follows a fixed proportional coefficient so that its output frequency precisely corresponds to a specific multiple range of the ultrasonic frequency. When the microwave frequency is slightly higher than the ultrasonic fundamental frequency, its electromagnetic wave period forms a time phase match with the interface oscillation period generated by the collapse of the cavitation bubble. This matching enables the microwave electric field to act on the new interface exposed at the moment of bubble collapse, enhancing the efficiency of hydrogen ion transfer from the gas phase to the liquid phase. At the same time, this proportional range can avoid the standing wave superposition effect and prevent specific frequency combinations from forming energy stagnation points in the pipeline, causing local overheating.

[0048] The controller 19 is configured to delay the start of the tunable microwave generator 18 for a preset period of 5 to 8 seconds after the ultrasonic generator 15 stops operating. This control feature achieves a physical synergistic effect of the energy field through timing optimization. When the ultrasonic generator 15 stops operating, the control system automatically delays the start of the tunable microwave generator 18 for a specific period of time. This design primarily addresses the dynamic connection between the residual cavitation effect and electromagnetic excitation: at the moment the ultrasonic wave stops, a large number of unstable cavitation nuclei and high-frequency pressure oscillation waves remain in the resonant cavity 14. Immediately applying microwave energy will cause interference between the acoustic pressure field and the electromagnetic field, weakening the energy transfer efficiency.

[0049] The delay period allows the water body to complete the necessary physical relaxation process. Within the preset time period, the nanobubble stabilization layer 16 continues to play a capillary adsorption role, prompting the submicron bubbles generated by cavitation fragmentation to be fully embedded in the silica nanotube array. At the same time, the water molecules naturally transition from the high-frequency mechanical vibration mode to the ground state energy level, establishing a stable molecular orientation foundation for subsequent electromagnetic resonance. This buffering mechanism ensures that when the water flow enters the microwave action zone, the charge distribution of the hydrogen bubble interface and the dipole moment direction of the water molecules both reach a controllable excitation state. This time period setting forms a hidden association with the system frequency parameters. Since there is a fixed proportional relationship between the ultrasonic operating frequency and the microwave frequency, the delay time must cover the complete cycle of the acoustic energy decaying to the background noise level. During this period, the nanobubbles complete the dynamic equilibrium process of the surface tension, making the subsequent microwave field polarization effect on the bubble double layer more uniform.

[0050] Through precise timing management, the controller 19 avoids the energy dissipation caused by the superposition of multiple physical fields, and ensures that the transformation process of hydrogen ions from mechanical fragmentation to electromagnetic activation is seamless, ultimately achieving the continuous enhancement of the electronic state of hydrogen ions in active water bodies.

[0051] The controller 19 is configured to increase the operating power of the tunable microwave generator 18 when the operating time of the ultrasonic generator 15 exceeds the preset time. The calculation formula for increasing the operating power of the tunable microwave generator 18 is: P m =P0×[1+0.05×(T u -T0) / T0]; where P m is the increased working power of the tunable microwave generator 18, P0 is the reference power of the tunable microwave generator 18, T u is the operating time of the ultrasonic generator 15, and T0 is the preset time.

[0052] This control feature maintains the thermodynamic equilibrium of the water activation process through a dynamic power compensation mechanism. When the ultrasonic generator 15 operates continuously for a duration exceeding a preset threshold, the accumulated heat from cavitation in the water increases the molecular kinetic energy. Maintaining the microwave generator's base power at this point will weaken the efficiency of resonant energy transfer. The control system monitors the ultrasonic operating duration parameter in real time and automatically triggers a power adjustment algorithm when a preset threshold is reached, increasing microwave output intensity proportionally with the duration of the ultrasonic operation.

[0053] This regulation mechanism is based on the principle of compensating for thermal dissipation during energy level transitions in water molecules. As water temperature rises, the binding energy threshold between hydrogen ions and water molecules increases accordingly, and the microwave field intensity at the original baseline power is insufficient to stimulate effective dipole resonance. The power boost module converts the variable ultrasonic operating duration into microwave power increments using a specific proportional coefficient, ensuring that the microwave energy penetration depth consistently covers the core area of ​​the water flow. This design ensures that the vibrational energy acquired by hydrogen ions increases in sync with the thermal motion intensity of the water, preventing attenuation of the activation effect due to changes in the thermodynamic environment.

[0054] This function synergizes with the system's protection mechanisms. The controller 19 dynamically limits the upper limit of power boost based on thermal sensor data, preventing local overheating caused by excessive microwave power. At the same time, the microwave frequency maintains a strict proportional relationship with the ultrasonic frequency, maintaining a precise match for molecular resonance. This intelligent power adaptation strategy not only ensures activation stability under long-term operating conditions, but also optimizes system energy efficiency through refined control of energy input, ultimately ensuring that the ionic activity of the produced water remains constant.

[0055] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present invention.

Claims

1. A hydrogen ion-rich electronic active water device, characterized in that: It includes an electrolytic cell, a resonant circuit unit, a permanent magnet unit, a resonant cavity, an ultrasonic generator, a nanobubble stabilization layer, a far-infrared radiation plate, a tunable microwave generator and a controller; The electrolytic cell is provided with at least one pair of titanium-based platinum-plated electrodes arranged in parallel, with a spacing between the titanium-based platinum-plated electrodes ranging from 3 mm to 8 mm. The resonant circuit unit includes an adjustable inductor and a capacitor, and the resonant circuit unit is electrically connected to the titanium-based platinum-plated electrodes. The permanent magnet units are arranged in a rectangular array on the outer wall of the electrolytic cell, and the direction of the magnetic field formed by the permanent magnet units is perpendicular to the plane of the titanium-based platinum-plated electrode; The resonant cavity is connected to the water outlet of the electrolytic cell, the ultrasonic generator is connected to the bottom of the resonant cavity, the nanobubble stabilization layer is composed of silicon dioxide nanotubes arranged in a rectangular array, and the nanobubble stabilization layer is attached to the inner wall of the resonant cavity; The far-infrared radiation plate is made of a ceramic material doped with rare earth elements, covers the outer surface of the water outlet pipe, the water outlet pipe is connected to the water outlet, and the tunable microwave generator is installed downstream of the far-infrared radiation plate.

2. The hydrogen ion-rich electronic active water device according to claim 1, characterized in that: The surface of the titanium-based platinum-plated electrode is provided with a porous structure, the pore diameter of the porous structure is 5 μm-20 μm, and the porosity of the porous structure is 30%-60%.

3. The hydrogen ion-rich electronic active water device according to claim 1, characterized in that: The permanent magnet unit is composed of alternatingly arranged NdFeB magnet blocks and ferrite magnet blocks, and the spacing between adjacent NdFeB magnet blocks and adjacent ferrite magnet blocks is 1 / 5-1 / 3 of the length of the titanium-based platinum-plated electrode.

4. The hydrogen ion-rich electronic active water device according to claim 1, characterized in that: Define the operating frequency of the ultrasonic generator as f u , define the operating frequency of the tunable microwave generator as f m ; Among them, f m =α×f u , the f u The value range of is 28kHz-100kHz, and the value range of α is 1.1-1.

3.

5. The hydrogen ion-rich electronic active water device according to claim 1, characterized in that: The controller is configured to: when the ultrasonic generator stops operating, delay for a preset time period before driving the tunable microwave generator to start operating.

6. The hydrogen ion-rich electronic active water device according to claim 1, characterized in that: The controller is configured to increase the operating power of the tunable microwave generator when the operating duration of the ultrasonic generator exceeds a preset duration.

7. The hydrogen ion-rich electronic active water device according to claim 6, characterized in that: The controller is configured to increase the operating power of the tunable microwave generator, specifically comprising: P m =P0×[1+0.05×(T u -T0) / T0], where P m is the increased working power of the tunable microwave generator, P0 is the reference power of the tunable microwave generator, T u is the operating time of the ultrasonic generator, and T0 is the preset time.

8. The hydrogen ion-rich electronic active water device according to claim 5, characterized in that: The preset time period is 5s-8s.

Images