309 results about "Oxygen ions" patented technology

This invention discloses a photocatalytic negative oxygen ion near-field purification eyeglass component and its preparation method. The component includes an eyeglass substrate (lens or frame). From the inside out, the outer surface of the substrate is sequentially provided with a functional film layer, a plasma activation layer, and an outermost composite film layer of nitrogen-doped anatase titanium dioxide supported on a Pt-Au-Ag-Pd quaternary noble metal. This film is responsive to the entire visible light band from 400nm to 700nm and stably generates ≥1000 negative oxygen ions / cm³ within a 30cm near-field breathing zone of the wearer's mouth and nose under normal lighting conditions. It also achieves antibacterial and bacteriostatic effects, degradation of harmful gases, surface self-cleaning, and anti-fogging functions. This invention optimizes the film structure, allowing the photocatalyst to directly contact air and visible light, maximizing catalytic efficiency. It is also compatible with lenses and frames, integrating multiple effects such as eye protection, purification, antibacterial properties, and anti-fogging. The process is universal and mass-producible.

The invention relates to a preparation method of a low-resistance silicon carbide coating based on a molybdenum / tantalum metal electrode, which comprises the following steps: S1, substrate pretreatment: carrying out mechanical micro roughening, ultrasonic cleaning and drying on a Mo / Ta electrode, and then reducing to remove an oxidation film; s2, Si-rich nucleation: taking methyl trichlorosilane as a Si / C common source, hydrogen as carrier gas / reducing gas and nitrogen as an n-type doping source for gas supply to form a compact nucleation layer; s3, main body deposition is conducted, specifically, the temperature is adjusted to 1140-1180 DEG C, the total pressure is maintained to be 80-120 Torr, and gas supply continues to be conducted for deposition; s4, annealing and dechlorination: stopping methyl trichlorosilane, keeping hydrogen and nitrogen flushing, and then annealing; and S5, cooling and shaping: cooling and taking out the sample annealed in the step S4, and adjusting the surface roughness to a set value to obtain the low-resistance silicon carbide coating on the Mo / Ta electrode. Compared with the prior art, on the premise that conductivity is not sacrificed, atomic oxygen / oxygen ion resistance, sputtering resistance, thermal cycling stability and the like of the Mo / Ta electrode can be remarkably improved.

1. Name of the product in this design: Micro-pressure oxygen chamber (lightweight C-type with high molecular weight negative oxygen ions). 2. Purpose of this design: for human oxygen supply, micro-pressure oxygen therapy, and health care. 3. The key design features of this product are the combination of shape and pattern. 4. The image or photograph that best illustrates the design's key points: a 3D model.

A fuel electrode and systems containing the electrode are disclosed. A fuel electrode for use in a solid oxide electrochemical apparatus includes an electron conductor and an oxygen ion conductor. The electron conductor includes Nickel (Ni), Copper (Cu), and Magnesium oxide (MgO). The oxygen ion conductor includes doped Ceria. The fuel electrode includes a cermet current collector that also includes Nickel (Ni), Copper (Cu), Magnesium oxide (MgO), and doped ceria. The current collector also includes metal that is less prone to oxidization, such as certain precious metals. A solid oxide electrochemical cell includes the fuel electrode, an oxygen electrode, and a power supply in operable communication with both electrodes. A method of operating the solid oxide electrochemical cell as either a solid oxide electrolysis cell or a solid oxide fuel cell includes reducing the fuel electrode, if it becomes oxidized, without having to dismantle or replace the fuel electrode.

The utility model discloses a water ionization structure capable of improving water detection sensitivity and a water negative oxygen ion generation device, the water ionization structure is a cover body with an opening at the lower end, the cover body is arranged at the lower part of an atomization cavity and covers an ultrasonic ceramic transduction sheet and a water level detection device, and the cover body is made of a plastic material mixed with a mixed rare earth ionization material; a first through hole corresponding to the ultrasonic ceramic transduction piece in position is formed in the top face of the cover body so that water mist can pass through the first through hole, an isolation cavity used for isolating the ultrasonic ceramic transduction piece from the water level detection device is formed in the cover body, and the top face of the isolation cavity is a closed face. According to the water ionization structure capable of improving the water detection sensitivity and the water negative oxygen ion generation device, the water detection sensitivity can be improved, the ionization and cracking effect of water molecules in the atomization cavity is enhanced, and early-stage preparation is made for the atomization fineness of the ultrasonic ceramic transduction piece.

The present application relates to a kind of gas strike type negative oxygen ion generator, including cup, cup cover and negative oxygen ion generating device, the negative oxygen ion generating device is set to the inner cavity of cup, the negative oxygen ion generating device includes generating device ontology, gas strike plate, air inlet pipe and gain pipe, the gas strike chamber is enclosed between the generating device ontology and gas strike plate, the lower end of the gain pipe is communicated gas strike chamber, upper end is communicated the air outlet of negative oxygen ion generator by water removal structure, one end of the air inlet pipe is connected with gas source, the other end is communicated with gas strike hole, the strike plate is set in the front of the gas strike hole air outlet direction, the water removal structure includes a airflow containing space, the water removal structure includes with the airflow containing space communication inlet, outlet and drain, the inlet is communicated with the gain pipe, the outlet is communicated with the air outlet, the drain is set in the bottom of the containing space, and the inlet and the outlet staggered arrangement.

The invention relates to the technical field of vehicle interior materials, and particularly discloses an interior material capable of releasing negative oxygen ions and a preparation method of the interior material. The material consists of the following components in parts by mass: 1-3 parts of a plant fiber base material, 0.1-0.2 part of rumex and 1-2 parts of a solvent. The plant fiber base material takes moxa as a main component, and loofah sponge can be added to optimize the performance. The solvent is plant hydrolat or a liquid plant extract and needs to have the rumex dissolvability, and the water content is larger than or equal to 80%. According to the invention, the rumex is fully permeated into the microporous structure of the plant fiber base material through a specific process, so that multiple functions such as continuous release of negative oxygen ions, efficient antibiosis, formaldehyde purification and intelligent regulation of temperature and humidity are realized. The material can obviously improve the air quality of a vehicle cabin and the driving comfort, and is green, environment-friendly, high in weather resistance, simple and controllable in preparation process and suitable for large-scale production.

The invention provides a lithium-rich manganese-based positive electrode material and a preparation method thereof, and a secondary battery, the positive electrode material comprises a spinel phase surface transition layer, the molecular formula of the lithium-rich manganese-based positive electrode material is LixMyAaBbO2, M is Mn, Mn / Ni, Mn / Co or Mn / Ni / Co, A is lithium ion vacancy, B is oxygen ion vacancy, 1lt; xlt; 1, 1.2, 0.8 lt; yt; Yt; 1, 0lt; a < lt >; 0.1, 0 lt; blt; and 0.05%. According to the lithium-rich manganese-based positive electrode material, the preparation method thereof and the secondary battery, the lithium-rich manganese-based positive electrode material is subjected to surface treatment, in-situ construction of a surface buffer layer is realized, the stability of combination with a matrix is improved, and stable material dynamics improvement is realized.

The invention relates to the field of polymer functional composite materials, and particularly discloses a negative oxygen ion TPE three-layer plastic uptake foot pad and a preparation method thereof. The foot pad comprises a surface layer, a foam layer and a supporting layer which are sequentially arranged from top to bottom, the surface layer is composed of a modified TPE base body, the foam layer is a micro-foaming TPE elastic layer with the density being 0.4-0.7 g / cm < 3 >, and the supporting layer is a high-hardness TPE material layer with the Shore A hardness being 70-90. The modified TPE matrix is composed of TPE resin, negative oxygen ion composite master batch, 2, 4, 6-trihydroxymethyl phenol, a flexibilizer, an antioxidant, a light stabilizer, a dispersant and an inorganic filler, and the negative oxygen ion composite master batch is prepared by compounding tourmaline powder and a chitosan-organic silicon coupling graft. Through the twin-screw melt blending and three-layer co-extrusion plastic uptake molding process, the foot pad can be stable in structure, layered combination is firm, and negative oxygen ions are continuously released. The foot pad has excellent negative oxygen ion release performance, wear resistance, compression resilience and interlayer bonding strength, and is suitable for the field of automotive interiors and healthy and environment-friendly foot pads.

A sensor element including an oxygen-ion conductive solid electrolyte body, a detection electrode provided on a surface of the electrolyte body and in contact with a measured gas, and a reference electrode provided on the other surface of the electrolyte body and in contact with a reference gas; a catalyst layer covering the detection electrode and including a porous carrier of ceramic particles, and catalyst particles supported on the carrier and formed of a noble metal (Pt, Pd, Rh, and / or Au). The carrier includes oxide particles bonded to portions of surfaces of the ceramic particles, the oxide particles having a composition different from the ceramic particles, being smaller than the ceramic particles, and being formed of zirconia, alumina, or lanthana. The catalyst particles are supported on either of surfaces of the oxide particles and the surfaces of the ceramic particles.

This solution relates to the coatings field and proposes an aqueous nano-dispersion of far-infrared negative oxygen ion material. By weight, it comprises: 300-350 parts water; 35-45 parts wetting agent; 40-60 parts dispersant; 25-35 parts defoamer; 35-45 parts multifunctional additive; 5-7 parts thickener; 400-600 parts activated far-infrared negative oxygen ion material; 1-3 parts accelerator; and 3-5 parts shielding agent. This solution designs a multi-component synergistically promoting activated far-infrared negative oxygen ion material, which can improve the hemispherical spectral emissivity in the 4-14μm band, even reaching above 0.95 in the key 8-12μm band, effectively promoting formaldehyde decomposition with a long-lasting effect, while also improving antibacterial properties.

This invention discloses an energy-saving and healthy glass, belonging to the field of glass product technology. The energy-saving and healthy glass comprises a functional layer formed by an inorganic functional oil-based coating and a glass substrate. The inorganic functional oil-based coating, by weight, comprises 8-30 parts modified SiO2, 2-10 parts LiNbO3, 2-8 parts Al2O3, 5-12 parts CaF2, 10-20 parts rare earth boride, 0.4-1 part dispersant, 0.2-0.5 parts defoamer, 0.2-1 part clarifying agent, 3-6 parts negative oxygen ion initiator, and 25-70 parts solvent. Simultaneously, this invention also provides a method for preparing the energy-saving and healthy glass, which is simple to operate and has low preparation cost. Without affecting the light transmittance of the glass, it ensures the energy-saving and healthy glass's effects of UV protection, infrared protection, antibacterial and bactericidal properties, and chemical corrosion resistance. The transmittance of ultraviolet and infrared rays is less than 5%, while the transmittance of visible light can reach over 70%.

The utility model discloses a bionic negative oxygen ion generating device which comprises a mounting shell, a negative oxygen ion generator, a negative oxygen ion generator, a negative oxygen ion generator, a negative oxygen ion generator, a negative oxygen ion generator and a negative oxygen ion generator, and is characterized in that a fresh air inlet is formed in one side of the lower part of the mounting shell; a fresh air primary filter; a heat exchange core; a high efficiency filter; a fresh air fan; an exhaust primary filter; an exhaust motor; a negative ion generator module; a sensor module; a PTC heater; and a controller. The negative ion air purifier can release high-purity negative ions from the air purification level, actively purify air, settle pollutants such as dust and smoke, remove peculiar smell, sterilize and disinfect, effectively improve air quality, generate negative ions close to the nature in the health aspect, promote metabolism of a human body, enhance immunity, improve the functions of a respiratory system and a nervous system, and improve the health of the human body. The symptoms of respiratory diseases and mental stress are relieved.

The application discloses a two-dimensional resistance change memory and a preparation method thereof. 2‑x O x The materials of the first resistance change layer and the second resistance change layer are MoS2 and MoO3 respectively, the oxygen concentration difference between the first resistance change layer and the second resistance change layer facilitates oxygen ion migration, and the interface oxide layer between the top electrode and the second resistance change layer provides an oxygen ion source. The technical scheme of the application solves the problems of a small on-off ratio and high power consumption of the existing resistance change memory.

The application discloses a negative oxygen ion generating device, which comprises an air inlet, an air outlet and a water feeding module, a water flow diffusion module is arranged on an air duct between the air inlet and the air outlet, and the water flow diffusion module is arranged on a water outlet side of the water feeding module; and an electrolysis module is arranged on an upstream side of the water flow diffusion module, and water treated by the electrolysis module is transported to the water flow diffusion module. The water flow diffusion module greatly increases the contact area between water flow output by the electrolysis module and air, so that more negative oxygen ions are carried in air output through the air outlet, and the air output through the air outlet can be diffused to a farther distance without generating nitrogen oxides and other accompanying products consuming negative oxygen ions, so that a larger space is covered, which overcomes the technical prejudice that the amount of negative oxygen ions generated by electrolysis water cannot meet the user's demand, and has remarkable beneficial effects and economic values.

The invention relates to the technical field of surface modification, and discloses a surface modification method based on an ion implantation method, which comprises the following steps: carrying out surface pretreatment on a titanium-based or cobalt-chromium-based implant; forming an interface steady-state layer by adopting low-energy nitrogen ion implantation; low-concentration oxygen ion co-injection is carried out on the steady-state layer to form a discontinuous anti-migration blocking layer; calcium ions, zinc ions and silver ions are injected in sequence, and a depth gradient structure from inside to outside is obtained through biphase modulation bias voltage; then implementing oxygen ion directional injection to form a non-stoichiometric oxide layer; performing alternating electric field aging in a water vapor and phosphate atmosphere to construct an ion trapping layer; and finally, sterilizing and sealing the treated workpiece. By constructing a multi-layer synergistic structure and a dynamic ion regulation and control mechanism, migration and agglomeration of functional ions can be slowed down, and the long-term stability of the surface of the implant is improved.

The utility model discloses a negative oxygen ion generating device for humidifying air, which comprises a generating device body, the generating device body comprises a generator arranged at the upper part and used for generating negative oxygen ions and a water tank arranged at the lower part and used for supplying water, and the generator comprises a lower accommodating shell arranged at the lower part; a middle plate is arranged on the upper portion of the lower containing shell, and a water inlet communicated with the water tank is formed in the lower portion of the lower containing shell. The side face of the middle plate is provided with a connector used for being connected with compressed air. An upper containing shell is arranged on the upper portion of the connecting opening, and an air outlet used for outputting negative oxygen ions and water mist is formed in the upper containing shell. Water in the water tank is input into the lower accommodating shell through the water inlet, and is impacted by compressed air input from the connecting port to generate negative oxygen ions and water mist; the negative oxygen ions and the water mist move upwards and are output outwards through the middle plate and the air outlet in sequence; the negative oxygen ion generator can generate negative oxygen ions and water mist at the same time, and the water mist is used for indicating generation of the negative oxygen ions.

1. The name of the design product: negative oxygen ion sleep instrument. 2. The use of the design product: the design product is used for negative oxygen ion sleep instrument. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective drawing.

The invention belongs to the technical field of negative oxygen ion equipment, and particularly relates to a small air-excited negative oxygen ion generating device which comprises a shell and a separator arranged in the shell. A reserved opening is formed in the top of the shell, and the bottom of the shell communicates with air compression equipment through an air inlet pipe. A high-concentration gas output pipe is further arranged in the upper area of the shell, and a water inlet is formed in the lower area of the shell; the separator comprises a mixing cylinder and at least two separating pipes, and the bottom of the mixing cylinder is provided with a shunting port communicated with the shell; each separation pipe is L-shaped and comprises a vertical section and a horizontal section communicated with the vertical section, the horizontal section of the subsequent separation pipe is communicated with the vertical section of the previous separation pipe, and the horizontal section of the previous separation pipe is communicated with the mixing cylinder; the top of the vertical section of the subsequent separation pipe is communicated with a high-concentration gas output pipe; and the vertical sections of the separation pipes are communicated with the shell. Therefore, the structure of the device can be optimized, and the negative oxygen ion generation efficiency is improved through multi-stage separation and fine gas-liquid mixing design.

The present application relates to the technical field of health-care materials, and discloses a rare earth composite energy health-care product based on synergy and a preparation method thereof, which comprises monazite fine powder 10 parts by weight, silico-aluminate composite network forming agent 75-80 parts by weight, in-situ reduction and network modifier 5-10 parts by weight, and pore forming agent 3-5 parts by weight; the preparation method comprises the following steps: crushing and grading the raw ore to obtain fine powder by intercepting high-density radioactive associated ore; mixing and kneading the fine powder and the remaining components to form a green body; performing three-stage step calcination to sequentially complete low-temperature pore forming, high-temperature magnesium hot reduction to generate lattice oxygen vacancies, and introduction of high-temperature water vapor to promote the generation of amorphous liquid phase to solid-solution-embed radioactive nuclides; and finally, forced air cooling and depolymerization and crushing are performed to obtain the finished product. The present application effectively reduces the radioactivity background of the material, blocks the physical channel for the escape of decay gas, and enables the product to have the functions of safe and stable far-infrared radiation and release of negative oxygen ions.

The invention discloses a method and device for generating charged microparticles through ultrasonic atomization water filtration, and the method comprises the steps: atomizing a liquid medium in a first liquid storage cavity through ultrasonic oscillation, and generating primary atomized gas containing the charged microparticles; the airflow power is provided, and the primary atomized gas is guided to the second liquid storage cavity through the conveying channel; the primary atomized gas enters and penetrates through a liquid medium layer stored in a second liquid storage cavity, large-particle liquid drops in the primary atomized gas are filtered out through the liquid medium layer, and purified gas with tiny charged particles escapes from the liquid level; and finally, discharging the purified gas escaping from the liquid level. According to the device, ultrasonic atomization and water filtration are combined, large-particle water mist is intercepted through the liquid medium layer, only nanoscale charged microparticles are output, high-concentration negative oxygen ions are generated, meanwhile, strong oxidizing by-products such as ozone and nitric oxide which are inevitably generated by adopting a high-voltage discharge structure are avoided, and the device has the advantages that the device is simple in structure and convenient to operate. And the potential safety hazard that high-voltage static breaks through air is eliminated.

The utility model provides a kind of multifunctional bionic ecological living space device, belong to indoor environment regulation technical field, disclose a kind of multifunctional bionic ecological living space device, to solve the problems such as the insufficient treatment of gaseous pollutants, easy secondary pollution, poor temperature and humidity adjustment of existing air purifier / fresh air machine.The device includes fresh air system (including fresh air motor, fresh air inlet, fresh air outlet), exhaust system (including exhaust fan, exhaust inlet), heat recovery system (heat exchange core), filtration group system (high efficiency filtration, exhaust primary efficiency filtration), negative oxygen ion assembly (negative ion generator module), sensing component (sensor module), sterilization system (ultraviolet lamp) and auxiliary heating device (PTC heater).Through multi-system cooperation, air purification, temperature and humidity regulation, sterilization, heat recovery and bionic environment creation are realized, and indoor living comfort and health are improved.

This invention discloses a method and apparatus for preparing high-purity arsenic in an anhydrous liquid medium at high temperatures, belonging to the field of molten salt electrochemistry. The method uses a low-melting-point, highly stable calcium chloride (CaCl2)-based molten salt as the electrolyte, directly dissolving or dispersing calcium arsenate powder in the molten salt. Electrolysis is carried out under an inert atmosphere, with the electrolysis temperature controlled between 650-950℃. Arsenate ions (AsO4) are present at the cathode. 3‑ The arsenic is directly reduced to elemental arsenic. Because the operating temperature is much higher than the boiling point of arsenic (614℃), the elemental arsenic instantly vaporizes into arsenic vapor (As₄(g)) and escapes from the molten salt. The arsenic vapor is transported to a condensation system via a carrier gas, where it condenses into solid high-purity arsenic in a low-temperature zone of 200-300℃ for collection. Oxygen is released from the anode through an oxygen ion oxidation reaction. This invention achieves the direct conversion of stable arsenate into high-value-added, high-purity arsenic. The process is short, energy-efficient, and produces high-purity products, providing a novel pathway for the high-value utilization of arsenic-containing waste.

The utility model relates to a kind of photocatalyst air purification disinfection machines, including machine body, the machine body is sequentially provided with primary filter, fan, high efficiency filter and photocatalyst component from below to above, the machine body side wall is equipped with air inlet corresponding primary filter, the air inlet side and the air outlet side of the photocatalyst component are equipped with light-shielding ventilation component, multiple photocatalyst modules are arranged in the mounting bracket of photocatalyst component, ultraviolet lamp is arranged in the center of photocatalyst module, and ultraviolet lamp is also arranged uniformly around photocatalyst module outer four quarters.The clean air after the grading filtration of primary filter and high efficiency filter enters the photocatalyst component, ultraviolet lamp is built-in in photocatalyst cylindrical base web, multiple ultraviolet lamps are externally arranged, compact structure, the inner and outer surfaces of photocatalyst module are irradiated, photocatalytic efficiency is greatly improved, it has dust removal clean purification, disinfection and sterilization, decomposition and degradation organic pollutant, generates negative oxygen ion, is beneficial to the health care of human body and other functions, and is widely applicable to multiple places.

The application is a kind of bidirectional unipolar regulation method based on organic memristor, which takes bidirectional unipolar voltage regulation of organic memristor as the object, induces oxygen ion transmission to build ion conduction mechanism through voltage regulation or pulse scanning, and realizes bidirectional unipolar voltage regulation. Through the regulation of oxygen ion transport of inorganic resistance change layer and organic functional layer, a kind of bidirectional unipolar voltage regulation memristor is obtained, which is based on the regulation of oxygen ions. The function layer oxygen ion transport can be accurately regulated by a simple voltage regulation or pulse scanning method, so as to build an ion conduction mechanism and realize bidirectional unipolar regulation. By extracting the conductance state of the memristor, unipolar multi-value storage is realized; and the memristor can be applied to simulate the function of neuron synapse.

1. Name of the product in this design: Negative Oxygen Ion Generator. 2. Purpose of this design: To generate and release negative oxygen ions to improve air quality. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

This invention discloses a modular negative ion water treatment device, belonging to the field of water treatment technology. It includes a multi-stage self-maintaining water treatment component, comprising a tank plate, a first electromagnet, a magnetic frame, and a repair carrier membrane. The tank plate is located on one side of a support frame, and the first electromagnet is fixedly installed on the bottom of the inner wall of the tank plate. The magnetic frame is magnetically connected to the upper surface of the first electromagnet, and the repair carrier membrane is fixed to the inner wall of the magnetic frame. This invention, by setting up a multi-stage self-maintaining water treatment component, has the advantages of eliminating the need for manual disassembly during maintenance, rapidly performing localized self-repair treatment on the microbial carrier membrane, and significantly improving the self-maintaining efficiency of multi-stage water treatment. This solves the problems of cumbersome and time-consuming processes requiring personnel to disassemble the cover and enter the interior for point-by-point operation, making rapid localized self-repair treatment difficult and resulting in low self-maintaining efficiency in water treatment.

The invention provides a silicon-on-insulator and a manufacturing method thereof, and the manufacturing method of the silicon-on-insulator comprises the steps: providing a device substrate, and forming a buried oxide layer on the device substrate; executing multiple ion implantation processes to form an embrittlement layer at the target stripping depth; the ion implantation process is a single hydrogen ion implantation process, and the implantation energy in the multiple ion implantation processes is sequentially increased. According to the multi-time ion implantation technology, the technology is optimized through a step-by-step and low-dosage strategy, the precision is remarkably improved, for example, ion implantation is conducted in three times, the total dosage is not changed, the implantation dosage is low each time, and lattice damage accumulation of single-time ion implantation is reduced. The continuity of the buried oxide layer is improved, and the thickness deviation is controllable. The distribution of oxygen ions can be accurately controlled by combining multiple times of ion implantation with gradient implantation energy adjustment: overlapped oxygen concentration peaks are formed in the longitudinal direction by adjusting each time of implantation energy, and a uniform buried oxide layer is fused after annealing.

The invention relates to the technical field of negative oxygen ion manufacturing equipment, and discloses an air-water mixed type negative oxygen ion generator which comprises a storage barrel, a supporting barrel and an air outlet barrel and further comprises a power containing cavity, a water containing cavity and a mixed cutting cavity, the power containing cavity and the water containing cavity are both arranged in the storage barrel, and the mixed cutting cavity is arranged between the storage barrel and the supporting barrel; the negative oxygen ion generation assembly penetrates through the power containing cavity, the water containing cavity and the mixing and cutting cavity, and a plurality of grid plates are installed on the inner wall of the supporting cylinder; the atomizer is mounted in the water containing cavity and used for atomizing water in the water containing cavity and then conveying the atomized water to the mixing and cutting cavity; according to the invention, multi-stage impact can be carried out on water mist, the mixing efficiency of air and water is improved, the generation amount of negative oxygen ions is increased, the diffusion area of the negative oxygen ions is enlarged, the humidity of discharged negative oxygen ions is reduced, and the use experience of a user is improved.

The application belongs to the technical field of fuel cell application, and discloses a polynorbornene-based anion exchange ionomer with double-domain coupled ion channels, a preparation method and application thereof. The polynorbornene-based anion exchange ionomer simultaneously constructs an ion domain rich in cation groups and a synergistic functional domain rich in oxygen-containing functional groups at a molecular scale, the two types of domains are coupled with each other in the material and form a continuous double-domain ion transmission network, so that the ionomer can still maintain a stable and continuous hydrogen and oxygen ion transmission channel under the conditions of a thin layer state of a cathode catalyst layer and limited hydration, and effectively improves the ion transmission connectivity and catalyst utilization efficiency of the catalyst layer interface. The ionomer is suitable for being used as an ion-conducting bonding material of a cathode of an alkaline membrane fuel cell, can improve the oxygen reduction reaction performance of the cathode, and provides a new material and structural design idea for a low-noble metal loading and high-power density fuel cell electrode structure design.