40 results about "Zirconium phosphate" patented technology

The present application relates to thin film magnesium battery zirconium magnesium phosphate solid electrolyte target material, preparation method and thin film magnesium battery, belong to magnesium battery technical field. Including: magnesium salt powder is mixed with diaphosphorus pentoxide and zirconium oxide powder to obtain mixed powder; the mixed powder is put into a closed ball mill tank and mixed with zirconium oxide balls, then a dispersing agent is added and mixed and ball milled; then a binder is added to the ball mill tank and ball milled; the synthesized powder after ball milling is sieved through a 500 mesh sieve, the sieved synthesized powder is poured into a vibrating mold, pressed, and a die pressed blank is formed; the blank is put into a cold isostatic pressing machine and pressed and pressure maintained, to obtain a zirconium magnesium phosphate solid electrolyte target material blank after cold isostatic pressing; the zirconium magnesium phosphate solid electrolyte target material blank is put into an atmosphere sintering furnace or a vacuum sintering furnace, after multi-stage heat preservation, the furnace is naturally cooled to room temperature, to obtain a thin film magnesium battery zirconium magnesium phosphate solid electrolyte target material. The composition of the solid electrolyte target material of the present application is uniform, facilitating thin film deposition.

The application relates to the field of diaphragms and discloses a diaphragm cloth for electrolytic hydrogen production, which comprises a polymer woven diaphragm and a functional coating coated on the surface of the diaphragm, and the functional coating comprises the following components: a high-molecular polymer, a composite additive, modified chitosan and an organic solvent; the composite additive is prepared by reacting 2-chloroethyl isocyanate grafted onto the surface of a composite filler with sodium p-hydroxybenzenesulfonate; the composite filler is prepared by taking zirconium oxychloride octahydrate as a precursor, evaporating Zr 4+ The modified halloysite nanotube surface fixed with the polydopamine-based layer on the surface is then reacted with Zr 4+ to form nano zirconium phosphate on the surface of the modified halloysite nanotube; and the modified chitosan is prepared by using succinic anhydride carboxylated polyvinyl alcohol microspheres and a condensing agent for modification; by adding the composite additive and the modified chitosan, the diaphragm cloth has good hydrophilicity and air tightness, excellent performance in alkaline water electrolysis and high mechanical strength.

This invention relates to the field of biomass degradation technology, specifically to a ruthenium-based catalyst Ru@RuO2 supported by zirconium phosphate, its preparation method, and its application in catalyzing the hydrogenolysis of lignin. This invention is based on the in-situ reduction of elemental ruthenium to needle-like ruthenium oxide supported by amorphous zirconium phosphate, constructing a RuO2 / zirconium phosphate composite nanomaterial. This material can efficiently catalyze the hydrogenolysis of alkali-degraded lignin and model compounds such as α-O-4 and 4-O-5. Furthermore, the ruthenium nanoparticles generated from the in-situ reduction on ruthenium oxide exhibit high stability and can be reused multiple times.

This invention discloses a strongly bonded surface glaze layer for stain-resistant ceramic tiles, its preparation method, and its application, relating to the field of ceramic tile manufacturing technology. The surface glaze layer comprises a microcrystalline glaze composite layer and a stain-resistant surface layer. The microcrystalline glaze composite layer contains a core-shell structured aluminum zirconium phosphate, and the stain-resistant surface layer contains a core-shell structured calcium-activated silica gel. The two layers are sintered to form Ca-Zr-P-O chemical bonds. This achieves strong interfacial bonding and, through the construction of a dense nanocomposite structure for synergistic stain resistance, results in excellent and long-lasting stain-resistant performance, significantly improving the stain resistance and service life of the ceramic tile. It solves the problem of stain-resistant layers easily detaching and failing during long-term use in existing ceramic tile technologies.

The application discloses an anti-thermal shock alumina fiber reinforced phosphate high-temperature-resistant composite material and a preparation method thereof, and belongs to the technical field of ceramic matrix composites. The material is composed of gradient modified alumina fiber reinforcement, composite phosphate matrix and multi-scale composite filler. The fiber surface is provided with a nano yttrium oxide-yttrium phosphate gradient interface layer, and the matrix is an aluminum phosphate-zirconium phosphate-yttrium oxide composite system. The preparation method comprises fiber degumming, gradient interface modification, slurry preparation, impregnation and curing and microwave sintering. Through gradient interface regulation and composite matrix design, the application solves the problems of poor thermal shock resistance and insufficient high-temperature stability of the existing materials. Tests show that the material has no macroscopic cracking after 10 times of water cooling at 1300 DEG C, the strength retention rate is greater than or equal to 88%, the room temperature bending strength is greater than or equal to 280 MPa, and the material has excellent high-temperature mechanical properties and thermal shock stability, and is suitable for aerospace thermal protection and high-temperature structural parts.

This invention relates to the field of lithium battery packaging materials technology, and discloses a flexible packaging film for battery cells and its preparation process. The flexible packaging film comprises a protective outer layer, a first adhesive layer, an aluminum foil layer, a second adhesive layer, and a heat-sealing inner layer stacked sequentially, wherein a corrosion-resistant bonding layer is disposed between the aluminum foil layer and the second adhesive layer. The corrosion-resistant bonding layer is formed by curing and cross-linking a coating liquid containing a surface-functionalized graphene oxide-supported nano-layered zirconium phosphate composite on the surface of the aluminum foil. The heat-sealing inner layer is a multilayer co-extruded functional polypropylene film layer comprising an adhesive transition layer, a support layer, and a heat-sealing layer. By constructing a corrosion-resistant bonding layer at the aluminum foil interface and optimizing the multilayer structural design of the heat-sealing inner layer, the stability of the aluminum-plastic composite interface, the heat-sealing reliability, and the overall mechanical compatibility can be improved, thereby improving the comprehensive performance of the flexible packaging film for battery cells under high temperature, high humidity, and electrolyte contact conditions, making it suitable for the packaging of power batteries and energy storage batteries.

This invention discloses a heat- and impact-resistant protective conduit for MPP cables and its preparation method, relating to the field of polymer materials technology. The components, by weight, include: 20-22 parts of a toughening dispersion made from anhydrous ethanol and terminally epoxy-terminated hyperbranched polysiloxane; 33-35 parts of a boron-nitrogen co-doped carbon dot made from citric acid, boric acid, and urea, first compounded with phytic acid and piperazine, then compounded with modified zirconium phosphate prepared by hexadecyltrimethylammonium bromide intercalation, and then modified with silane coupling agent KH-560 to form a flame retardant synergist; 12-14 parts of polyolefin elastomer; 2-2.5 parts of magnesium aluminum hydrotalcite; 0.2-0.24 parts of antioxidant; 0.2-0.3 parts of calcium stearate; 0.2-0.3 parts of polyethylene wax; and 100-120 parts of polypropylene. The introduction of the flame retardant synergist and other raw materials in this invention effectively improves flame retardancy, aging resistance, impact resistance, low-temperature resistance, and heat resistance.

Zirconium phosphate particles obtained by contacting α-zirconium phosphate particles with a basic liquid with a pH of 9 or higher, and then further contacting them with an acidic liquid with a pH of 6 or lower, or zirconium phosphate particles having an ammonia gas reduction rate of 50% or more in a test bag containing said zirconium phosphate particles after placing 10 mg of zirconium phosphate particles and 3 L of air containing 1000 ppm of ammonia gas into a test bag at room temperature and pressure and leaving it for 10 minutes.

This invention belongs to the field of oil and gas drilling engineering technology, specifically relating to a drilling fluid anti-collapse lubricant and its preparation method. The method includes: firstly, heating deionized water, adding polyanionic cellulose, modified starch, and sulfonated asphalt, and stirring to form a gel; then sequentially adding octadecyltrimethylammonium bromide intercalated α-zirconium phosphate-titanium dioxide composite nanosheets and ethylmethylimidazolium tetrafluoroborate hybrid silicotungstic acid-graphene oxide composites, and shearing and dispersing; next, adding lubricant and surfactant for emulsification; finally, adding defoamer and preservative, and cooling to obtain the final product. The anti-collapse lubricant obtained by this invention exhibits excellent temperature and salt resistance, effectively inhibiting the hydration and expansion of shale and reducing drill string friction.

The application discloses a functional fabric for targeted decomposition of 2-nonenal and a preparation method thereof, and belongs to the technical field of textile functional materials. The application solves the problems of existing odor-removing fabrics, such as dependence on physical adsorption or fragrance covering method, inability to decompose 2-nonenal, easy rebound of odor, poor washability, insufficient skin-friendliness and the like. The functional fabric is prepared by two-dip-two-nip finishing of a polyester blended base fabric in a composite functional finishing liquid and then baking. The application realizes efficient targeted decomposition of 2-nonenal, a core odor-causing molecule, through the triple synergistic effect of cerium-doped nano-zinc oxide visible light catalysis, rosemary polyphenol-tea polyphenol compound chemical trapping and silver-loaded zirconium phosphate long-acting antibacterial effect. The application adopts a low-temperature baking chemical bonding process, so that the fabric still has excellent odor-decomposing and antibacterial properties after being washed for 30 times, is skin-friendly and non-irritating, is safe and environmentally friendly, and meets the A-class textile standard. The application has simple process, strong equipment compatibility and easy industrialization.

The application belongs to the technical field of ceramic surface modification, and particularly relates to a ceramic surface composite antibacterial coating and a preparation method thereof. The method first prepares two novel inorganic antibacterial materials, namely silver-doped zinc germanate and sodium-doped copper-manganese co-doped zirconium phosphate. Then the two antibacterial materials are mixed with nano-titanium dioxide, silica sol, borosilicate glass powder and a dispersing agent according to a specific weight ratio, and are subjected to ultrasonic dispersion and ball milling to prepare an antibacterial coating slurry. The pretreated ceramic substrate is coated with the slurry, dried, and then subjected to electron beam evaporation to deposit a silica protective layer. Finally, heat treatment is performed at a specific temperature, so that a composite antibacterial coating with a thickness of microns is formed on the surface of the ceramic substrate. In the coating prepared by the application, the two inorganic modified compounds synergistically act to realize the dual mechanisms of contact antibacterial and photocatalytic antibacterial, and the coating is firmly combined with the ceramic substrate, has excellent and long-lasting antibacterial performance.

A manufacture method of a deodorization fiber includes: a mixing step including mixing zirconium phosphate and a first dispersant including an amine-group compound in a solvent to form a mixture; a grinding step including grinding the mixture until a D90 particle size of zirconium phosphate is 0.1 μm to 1.5 μm to form a grinded mixture; a heating and stirring step including heating and stirring the grinded mixture to uniformly distribute zirconium phosphate and the first dispersant in the solvent to form a deodorant; a blending and pelletizing step including blending and pelletizing the deodorant and polyester to form a fiber masterbatch; and a melt spinning step including melt spinning the fiber masterbatch to form the deodorization fiber. A deodorization fiber is further provided.

The application discloses a modified iron phosphate material, a lithium iron phosphate material and a preparation method and application thereof, and belongs to the technical field of lithium iron phosphate materials. The modified iron phosphate material is in a sheet shape as a whole, and the modified iron phosphate material comprises zirconium phosphate with a sheet structure, the zirconium phosphate is loaded with elemental silver and lithium oxide between layers, and the outer surface of the zirconium phosphate is formed with iron phosphate. The modified iron phosphate material can be further prepared into the lithium iron phosphate material and applied to a battery, so that the rate performance, coulomb efficiency, capacity and conductivity of the battery can be improved. The preparation method of the modified iron phosphate material and the lithium iron phosphate material is simple and can be used for industrial production.

The present invention provides a laminate capable of suppressing the growth of bacteria or viruses on the outer surface of a container. [Solution] The laminate (10) comprises a base material (101) and a surface resin layer (102) on the base material (101). The base material (101) includes a plastic film. The surface resin layer (102) comprises a resin (102a) and zirconium phosphate particles (102b) supported with zinc and silver, which have antibacterial properties, antiviral properties, or both antibacterial and antiviral properties. A portion of the zinc and silver supported zirconium phosphate particles (102b) is exposed to the outside of the resin (102a) in a convex shape.

This application discloses a fluorinated zirconium phosphate compound, its nonlinear optical crystal, its preparation method, and its applications. The chemical formula of the fluorinated zirconium phosphate compound is Zr(H2PO4)(HPO4)F·nH2O, where 0≤n≤3, and n is an integer. Its nonlinear optical crystal consists of a two-dimensional infinite layered structure formed by [ZrO5F] coordination polyhedra and [HPO4] and [H2PO4] tetrahedra connected by shared oxygen atoms, with interlayer crystal water molecules forming a hydrogen bond network. The nonlinear optical crystal is a non-centrosymmetric crystal; it belongs to the monoclinic crystal system; and its space group is [missing information - likely a specific space group or group]. I 2; The unit cell parameters of a nonlinear optical crystal are a =10.1200(5)Å, b =6.5653(3)Å, c =15.6899(8), β =92.340(5), unit cell volume V =1041.58(9)Å 3 This nonlinear optical crystal possesses deep ultraviolet transparency, a considerable frequency doubling response, and high birefringence, thus meeting the application requirements of nonlinear optical devices. Furthermore, the preparation method has the advantages of simple operation, low cost, low pollution, and low toxicity of the raw materials used.

This invention relates to the field of polymer materials technology, specifically to a weather-resistant rubber material for sealing strips and its preparation method: It is made from the following raw materials in parts by weight: 60-80 parts rubber matrix, 5-10 parts silica, 20-40 parts composite weather-resistant filler, 1-3 parts dioxane, 0.5-1.5 parts triallyl isocyanurate, 5-10 parts paraffin oil, 1-2 parts phenolic antioxidant, and 0.5-1.5 parts lubricant. In this invention, the modified filler uses cerium-doped zirconium phosphate as the core component. The variable valence of cerium ions continuously captures and passivates the active free radicals generated during the thermo-oxidative aging of rubber. Simultaneously, the layered structure of zirconium phosphate forms a physical barrier against oxygen and ozone. The modified filler inhibits the oxidation chain reaction at its source, while the chemically bonded interface prevents filler detachment during aging, thus preventing protective failure and maintaining material stability in long-term thermo-oxidative and ozone environments.

The application provides a nuclear power cable insulation sleeve and a preparation process thereof, and relates to the technical field of cable preparation.The nuclear power cable insulation sleeve is prepared from the following raw materials: polyethylene, ethylene-propylene rubber, silicone rubber, ethylene-vinyl acetate copolymer, composite flame retardant, anti-radiation agent and additive; the composite flame retardant is obtained by mixing attapulgite, zirconium phosphate and ammonium octamolybdate, and the ratio of zirconium phosphate to ammonium octamolybdate is less than 2.The attapulgite, zirconium phosphate and ammonium octamolybdate are compounded as flame retardant materials by physical blending, which can not only enhance the tensile strength and elongation at break of the cable insulation layer, but also effectively reduce the total smoke released by the cable insulation layer in a fire, thereby comprehensively improving the application value of the cable insulation layer in a fire accident.

This invention discloses a phenolic / zirconium aluminum phosphate-based dual-network high-temperature resistant foam and its preparation method. The foam comprises a zirconium aluminum phosphate matrix, a water-soluble phenolic prepolymer, a high-temperature resistant filler, a foaming agent, a curing agent, and a foam stabilizer. This invention constructs an organic-inorganic dual-network structure through the co-construction of an organic-inorganic network by the water-soluble phenolic prepolymer and zirconium aluminum phosphate resin. The water-soluble phenolic prepolymer acts as the organic network, significantly improving the material's bonding strength, toughness, and compressive strength. The zirconium aluminum phosphate resin forms a rigid inorganic network, endowing the material with excellent ultra-high temperature resistance. By controlling the foaming rate through the synergistic reaction of foaming and curing, a porous foam structure with uniform pore size and stable structure is prepared. This material combines lightweight, ultra-high temperature resistance, and excellent thermal insulation properties, enabling adaptive filling of complex-sized gaps and rapid on-site foaming molding. It is suitable for applications such as thermal protection for aerospace vehicles, thermal insulation layers for rocket engines, and high-temperature sealing.

This invention discloses a polypropylene composition, its preparation method, and its applications, belonging to the field of polymer material modification technology. The polypropylene composition comprises a matrix polypropylene, a second polypropylene, a polyolefin elastomer, a masterbatch A composed of bismaleimide monomers, a third polypropylene, zirconium phosphate, and a silane coupling agent, masterbatch B. This invention achieves excellent interfacial compatibilization and controllable crosslinking within the polyolefin elastomer phase through the reaction of maleic anhydride and dodecyl diamine with bismaleimide monomers. Simultaneously, ball-milled modified zirconium phosphate provides efficient heterogeneous nucleation, significantly improving the crystallinity of the matrix. The resulting polypropylene composition better balances rigidity and toughness, broadening the application prospects of polypropylene materials in high-performance fields.

The application relates to an annealing method of a thin-film magnesium battery zirconium magnesium phosphate solid electrolyte target material, a solid electrolyte target material and a battery, and belongs to the technical field of magnesium batteries. After four-stage heat preservation, the annealing method is adopted to cool the furnace to 110-125 DEG C for continuous heat preservation, then the furnace is naturally cooled to room temperature, and the annealed thin-film magnesium battery zirconium magnesium phosphate solid electrolyte target material is obtained; the first-stage heat preservation temperature is less than the second-stage heat preservation temperature, the second-stage heat preservation temperature is less than the third-stage heat preservation temperature, the third-stage heat preservation temperature is less than the fourth-stage heat preservation temperature, and the fourth-stage heat preservation temperature is 660-680 DEG C. The thin-film magnesium battery zirconium magnesium phosphate solid electrolyte target material treated by the annealing method is uniform in composition, free of segregation, good in grain size consistency, free of cracks, free of stratification, free of bulges, convenient to machine in subsequent machining, and convenient to thin-film deposition in the preparation of the all-solid-state thin-film magnesium battery.

This invention provides a high-strength polyester fiber for outdoor use with radiative cooling function. The preparation method includes the following steps: titanium dioxide, silicon dioxide, silicon carbide, and zirconium phosphate are blended and ground in a certain proportion, dispersed in an acetone solution with a dispersant added, and then ultrasonically treated to form a nanoparticle dispersion; the nanoparticle dispersion is mixed with polyester chips; the mixed composite material is fed into a screw extruder for melt blending to form a spinning solution; the spinning solution is precisely metered by a metering pump and extruded through a spinneret to form fiber bundles, the spinneret being equipped with a slow-cooling heating device; the fiber bundles are post-treated to obtain high-strength polyester fibers. This invention selects a specific combination of titanium dioxide, silicon dioxide, silicon carbide, and zirconium phosphate, combined with specific slow-cooling technology and high-ratio stretch setting, to give the fiber excellent radiative cooling performance and mechanical strength, which can be widely used in outdoor clothing, awnings, car covers, and other fields.

The application discloses a fluorine-containing zirconium phosphate compound, a nonlinear optical crystal thereof and a preparation method and application thereof, and belongs to the technical field of inorganic functional crystal materials. The chemical formula of the fluorine-containing zirconium phosphate compound is ZrPO4F. The nonlinear optical crystal is composed of a [PO4] tetrahedron and a fluorine-containing zirconium coordination polyhedron to form a three-dimensional skeleton structure, zirconium is six-coordinated and forms a zirconium oxygen coordination polyhedron containing F; the nonlinear optical crystal is a non-centrosymmetric crystal; the nonlinear optical crystal is of an orthorhombic system; the space group of the nonlinear optical crystal is Pna 21; the cell parameters of the nonlinear optical crystal are a = 11.6094 (5) Å, b = 6.9038 (3) Å, c = 5.4921 (2) Å, α = β = γ = 90°, Z = 4, and the unit cell volume is V = 440.19 (3) Å 3 . The nonlinear optical crystal has a nonlinear optical effect, a large band gap (deep ultraviolet transparency), a wide transmission range and easy preservation, and is a nonlinear optical crystal material with great potential application value.

This invention discloses a method for preparing yarn with antibacterial and flame-retardant functions, belonging to the field of yarn preparation technology. The invention includes the following steps: Step a: Flame-retardant polyester fibers and silver-impregnated zirconium phosphate antibacterial modified polyester fibers are subjected to antistatic padding treatment, controlling the moisture regain at 4%-6%; Step b: A multi-layer web-laying machine is used to construct a three-layer fiber web structure of "flame-retardant fiber - antibacterial fiber - flame-retardant fiber", wherein the flame-retardant fiber accounts for 70%-85% of the total mass, and the antibacterial fiber accounts for 15%-30%. The yarn produced by this invention has a gradient structure. From the raw material pretreatment, each step is closely linked. Utilizing the structure of "flame-retardant core layer - antibacterial intermediate layer - flame-retardant surface layer," the antibacterial components are effectively protected, greatly improving wash resistance. Simultaneously, the rationally distributed flame-retardant components can quickly form a char layer upon contact with fire to isolate oxygen, significantly improving safety and providing reliable protection for applications in special scenarios, meeting the demands of today's market.

The application discloses a kind of scratch-resistant weather-resistant PBT composite material and preparation method thereof, belong to the field of high polymer materials.The composite material includes the following weight parts raw materials: PBT resin 70~90 parts;Titanium dioxide 10~30 parts;Coupling agent 2~5 parts;Zirconium phosphate 5-10 parts;The PBT resin specific viscosity 0.65~0.95dL / g;The total weight of PBT resin and titanium dioxide is 100 parts.Summarizes relative to prior art, the PBT composite material of the application has excellent scratch resistance, weather resistance, good quality, and has very high application potential in the bathroom industry.

This application discloses a fluorinated zirconium phosphate compound, its nonlinear optical crystal, its preparation method, and its applications. The chemical formula of the fluorinated zirconium phosphate compound is Rb. x (NH4) y Zr4(H2PO4)F 21 Where 0≤x≤6, 0≤y≤6, and x+y=6. The nonlinear optical crystal is a one-dimensional chain structure formed by connecting [H2PO4] tetrahedra with [ZrF7] / [ZrOF7] fluorine-containing zirconium coordination polyhedra; the nonlinear optical crystal is a non-centrosymmetric crystal; the nonlinear optical crystal is an orthorhombic crystal system; the space group of the nonlinear optical crystal is... Pna 21; The unit cell parameters of a nonlinear optical crystal are a =13.6933(3)Å, b =15.2014(4)Å, c =11.4304(2)Å, α = β = γ =90°, unit cell volume V =2379.32(9)Å 3 This nonlinear optical crystal possesses both deep ultraviolet transparency and a strong second harmonic response. The fabrication method utilizes a hydrothermal reaction, which is simple and operates under mild conditions. The resulting nonlinear optical crystal can be used to construct nonlinear optical devices such as frequency multipliers, sum / difference frequency converters, and optical parametric oscillators.

A method of performing dialysis includes: recirculating a dialysis fluid from a patient or a dialyzer for at least two cycles, each cycle contacting the dialysis fluid first with a zirconium phosphate layer followed by at least one of a urease layer, a zirconium oxide layer, or a carbon layer; storing the recirculated dialysis fluid in a storage container; and transferring the dialysis fluid from the storage container to the patient or the dialyzer. In one example, the zirconium phosphate layer and the at least one of the urease layer, the zirconium oxide layer, or the carbon layer is provided by a sorbent cartridge.

The application provides a use of a zirconium phosphate nanosheet film catalytic material in catalyzing a Knoevenagel condensation reaction. The zirconium phosphate nanosheet film catalytic material takes the tetrabutylammonium ions complexed on the surface of zirconium phosphate in an exfoliation process as main basic sites, and provides two-dimensional interlayer nanochannels with a limited function, so that the Knoevenagel condensation reaction is catalyzed through the synergistic effect of the two-dimensional interlayer nanochannels and the basic sites, and the Knoevenagel condensation reaction is rapidly and efficiently catalyzed at room temperature.

The application discloses a kind of preparation method and application of nano confined zirconium phosphate biochar composite material, belong to environmental functional material technical field, its steps are: (1) peanut shell is crushed and mixed with potassium bicarbonate, pyrolysis activation is carried out under protective atmosphere, after washing ash with dilute hydrochloric acid, mesoporous biochar carrier is prepared;(2) zirconium oxychloride octahydrate is configured into precursor solution and is introduced into the carrier, and continuous stirring is carried out to promote zirconium ion to be fully diffused and impregnated in the mesoporous channel inside the carrier, (3) add phosphoric acid solution to carry out in-situ precipitation reaction, after washing, dry and obtain composite material.The application utilizes the channel confined effect of carrier, realizes the uniform dispersion of zirconium phosphate active component in the pore of biochar at nanoscale, effectively solves the problem of nano-particle agglomeration.The obtained material has excellent selective adsorption performance for heavy metals in wastewater, and the application process is simple, raw materials are cheap, and has wide application prospect in the field of heavy metal wastewater treatment.

This application provides a water-based low-smoke intumescent fire-retardant coating for steel structures, its preparation method, and its application, belonging to the field of fire-retardant coatings. The coating is composed of the following chemical raw materials: 25-40 parts water-based resin, 30-50 parts intumescent system, 10-15 parts smoke-suppressing functional slurry, 2-5 parts additives, and water. The intumescent system consists of ammonium polyphosphate, pentaerythritol, and melamine. The smoke-suppressing functional slurry is prepared by wet grinding of α-zirconium phosphate, molybdenum compounds, zinc-magnesium-aluminum ternary hydrotalcite, zinc borate, montmorillonite, high molecular weight ammonium polyacrylate dispersant, and water. This application achieves a smoke density level ≤34, an expansion ratio ≥28 times, and a fire resistance limit ≥143 min through the synergistic effect of five functional powders and in-situ adsorption and passivation by ammonium polyacrylate. It combines the advantages of low smoke, high expansion, water-based environmental friendliness, and simplified process, overcoming the technical challenge of simultaneously achieving smoke suppression and expansion.