427 results about "Chemical bond" patented technology

A method of producing a chemical hydride is described and which includes selecting a composition having chemical bonds and which is capable of forming a chemical hydride; providing a source of a hydrocarbon; and reacting the composition with the source of the hydrocarbon to generate a chemical hydride.

The application provides a modified graphite-phase carbon nitride composite Cu-MOF catalyst and a preparation method and application thereof, and belongs to the technical field of photocatalytic materials. First, dicyandiamide and urea are mixed and then calcined to obtain g-C3N4; concentrated nitric acid and concentrated sulfuric acid are added to a suspension of the g-C3N4 to perform oxidation treatment, and modified graphite-phase carbon nitride is prepared; finally, the modified graphite-phase carbon nitride, 1,3,5-benzene tricarboxylic acid and copper salt are dispersed in a solvent to perform hydrothermal reaction, and the modified graphite-phase carbon nitride composite Cu-MOF catalyst is prepared. The carbon nitride is modified by oxidation, oxygen-containing functional groups such as carboxyl and hydroxyl are introduced on the surface of the carbon nitride, chemical bonds are formed with Cu²+ in an in-situ synthesis process, Cu-MOF crystals are induced to grow on the surface of the CNO in a directional manner, a tightly combined heterojunction interface is formed between the CNO and the Cu-MOF, and the efficiency of interface charge transmission is ensured.

The application discloses a polysiloxane resin and a preparation method thereof, a coating and a cooker and belongs to the technical field of coatings, wherein the coating comprises the following raw materials in parts by weight: 40-60 parts of an organic silicon resin, 10-30 parts of a polysiloxane resin and 0.5-2.0 parts of silicon oil; and the structural unit of the polysiloxane resin is: wherein R comprises an amino group. The coating of the application is compounded by the organic silicon resin and the polysiloxane resin, the polysiloxane resin contains the amino group, the amino group can react with the surfaces of various inorganic materials and form chemical bonds, and thus the adhesion between the coating and the base layer is improved. Therefore, the application can improve the adhesion of the coating.

The present application relates to a kind of environment-friendly water-based phenolic resin anticorrosive coating and its preparation process, belong to the field of coating technology.The coating is made of water-based phenolic resin emulsion, hyaluronic acid-lysine composition load nano SiO2-ZnO composite filler, synergistic anticorrosive filler, wetting dispersant, film forming aid, leveling thickener, defoaming agent and deionized water.The superhydrophilic of hyaluronic acid fundamentally solves the dispersion and storage stability problem of phenolic resin in aqueous phase, and the amino group of its lysine side chain can also chemically bond with resin during curing, significantly enhancing the adhesion, flexibility and interfacial bonding strength of coating.At the same time, nano SiO2, ZnO and synergistic anticorrosive filler construct a multiple synergistic anticorrosive network of physical shielding, sacrificial anode and chemical passivation, achieving long-term active protection.The whole system uses water as medium, selects bio-based raw materials and low VOC additives, and the environmental protection is outstanding.

This invention belongs to the field of flame retardant technology, specifically relating to a coated boron nitride and its preparation method and application, and a biodegradable flame-retardant composite material and its preparation method and application. This invention employs a multi-level structure regulation approach, utilizing silane coupling agents and chemical bonding for surface coating modification, effectively alleviating stress concentration. Furthermore, regular polyhedral flame-retardant units are constructed on the coated and modified two-dimensional boron nitride surface, building a three-dimensional flame-retardant network. Through phytic acid molecular bridging, an inorganic-organic interface transition layer is formed, significantly improving the interfacial adhesion strength between the functional phase and the matrix resin. This invention constructs a flame-retardant structural system based on molecular configuration optimization, optimizing the interfacial compatibility between the functional phase and the biodegradable matrix resin. It utilizes a bio-based phosphorus-nitrogen synergistic flame-retardant system combined with a two-dimensional boron nitride structure for composite design, constructing a flame-retardant network system with both high-efficiency flame-retardant properties and excellent performance.

The application relates to the technical field of inks, and discloses a long-acting coagulation ink formula, a preparation method and application, the ink comprising a water-based polyurethane emulsion, pigments, a defoaming agent and a dispersing agent; the water-based polyurethane emulsion formula is polytetrahydrofuran glycol, glycerol monooleate, isophorone diisocyanate, a chain extender and a hindered phenol crosslinking agent; the hindered phenol crosslinking agent is prepared and introduced into a molecular chain segment of the water-based polyurethane binder, linear water-based polyurethane macromolecules are linked in the form of chemical bonds, a crosslinked network structure is formed, molecular chain movement is limited, aggregation is not easy, gel during storage can be reduced, and the hindered phenol is linked to the polyurethane molecular chain through chemical bonds, free radicals are captured by the hindered phenol groups, and the phenomenon of ink skinning, gelation and coagulation of the polyurethane ink caused by oxidation during storage and use is avoided; the ink has excellent stability, adhesion, skinning resistance, rubbing resistance and alcohol resistance.

The application provides a self-driven BCG-nanoparticle complex and a preparation method thereof, and belongs to the fields of biological medicine and nanomaterials. The complex is a composite of BCG and cerium oxide nanoparticles with urease activity, the cerium oxide nanoparticles are coupled to the surface of the BCG in an asymmetric distribution through modified polyethyleneimine, and specifically, the surface of the BCG is connected to several modified polyethyleneimine derivatives through chemical bonds and electrostatic adsorption, and the polyethyleneimine derivatives wrap the cerium oxide nanoparticles through electrostatic adsorption. The complex can be self-driven by using the gas release and ion concentration change caused by the catalytic decomposition of urea in the environment, significantly enhances the adhesion and retention of BCG on the bladder wall, effectively overcomes the defects of low delivery efficiency and insufficient immune activation of traditional BCG therapy, simultaneously improves the tumor immune microenvironment, and can be used for preparing high-efficiency and low-toxicity bladder cancer treatment drugs.

This application relates to the field of solid-state battery technology, and discloses an all-solid-state battery with a stress-relieving localization layer at the electrode interface and its manufacturing method. The localization layer includes a stress-relieving localization layer with a thickness of 1μm-5μm, which is composed of 5wt%-20wt% of a conductive elastomer containing polar side-chain functional groups and 80wt%-95wt% of nano-sized sulfide solid electrolyte particles. During charge-discharge cycles, this localization layer disperses the localized mechanical stress generated by the lattice expansion of the electrode through the deformation of the flexible polymer segments, inhibiting microcrack propagation and interface delamination; and spontaneously rebuilds physical and electrical contacts by recombining dynamically reversible non-covalent chemical bonds at the points where the polar side-chain functional groups detach from the interface. This invention achieves spatial decoupling between interface stress buffering and low bulk impedance, improving the battery's long cycle life and high-rate output performance.

The application belongs to the technical field of sand consolidation agent preparation, and particularly relates to a sand consolidation agent and a preparation method thereof. The sand consolidation agent is composed of component A and component B. The component A is composed of the following raw materials: a diphenyl phenolic epoxy resin, hexakis(4-hydroxymethylphenoxy)cyclotriphosphazene, modified nano calcium zirconate, cage octakis(aminophenyl)silsesquioxane, n-butyl glycidyl ether, KH-550 silane coupling agent, polyether amine, fumed silica and defoaming agent. The component B is composed of the following raw materials: polyborosilazane and 2-ethyl-4-methyl imidazole. The cage octakis(aminophenyl)silsesquioxane in the raw material of the sand consolidation agent strengthens the network structure stability through chemical bonding, the hexakis(4-hydroxymethylphenoxy)cyclotriphosphazene realizes thermal stabilization through chemical bonding and physical dispersion, and the modified nano calcium zirconate provides physical support. The three components synergistically improve the heat resistance of the system.

The application discloses a silane-modified antioxidant with anti-precipitation and anti-migration, a preparation method and application thereof, and belongs to the technical field of polyethylene pipe materials. The antioxidant is obtained by optimizing and modifying a composite antioxidant, and three different types of antioxidants, namely, hindered phenol, aromatic amine and tocopherol, are chemically bonded to a molecular skeleton to form a composite and multi-mechanism antioxidant active end, so that the antioxidant has the advantages of excellent migration resistance and precipitation resistance, and the durability of the antioxidant is ensured. In addition, the modified antioxidant is applied to the preparation of a silane cross-linked polyethylene pipe material, has better compatibility, and is firmly fixed in a polymer network through covalent bond anchoring, so that the antioxidant molecule provides stable, durable and reliable antioxidant protection for the pipe material, the service life of the pipe material is greatly prolonged, and the total cost of replacement and maintenance is reduced.

A semiconductor structure and a forming method thereof, the forming method comprising: providing a substrate, the substrate comprising a substrate and a target pattern on the substrate; forming an isolation material layer covering the substrate and the target pattern, a top of the isolation material layer being higher than a top surface of the target pattern; doping ions to the isolation material layer for generating stress in the isolation material layer. In the process of doping ions to the isolation material layer, the doping ions can break chemical bonds in the isolation material layer, so that the isolation material layer has a compressive stress, the compressive stress makes the target pattern bend towards a direction opposite to a first direction, so that the target pattern has a better topography quality, reduces the risk of bridging between adjacent target patterns, and is conducive to improving the electrical performance of the semiconductor structure.

This invention relates to the field of coating technology, specifically to a production method for a multi-layer coloring-coating-curing composite structure for mobile phone back panels. This method employs a "layered construction, chemical bonding, and gradient curing" strategy to sequentially construct a base coating layer, a main coloring layer, a transition layer, a magnetron sputtering coating layer, an organic-inorganic composite hard coating layer, and a permeation-grafted antifouling layer on a substrate. This effectively solves the technical problems of existing back panel decorations, such as edge exposure and color difference, coating layer peeling, and short-lasting antifouling layers, achieving a unity of appearance, texture, mechanical strength, and long-lasting functionality.

This invention discloses a functional coating for an ultra-tough, high-barrier integrated PI substrate for flexible OLEDs and its coating process. The coating includes a PI substrate layer, with the functional coating disposed on the upper surface of the PI substrate layer. The functional coating is an organic-inorganic hybrid gradient structure layer. This layer is formed by curing the same composition, with the content of inorganic nano-components increasing in a gradient and the content of organic polymer components decreasing in a gradient. The functional coating simultaneously provides water and oxygen barrier protection and stress buffering to the PI substrate layer. The beneficial effects of this invention are: by employing a single-layer gradient structure, the physical interface between traditional multilayer structures is eliminated, fundamentally avoiding interlayer delamination during bending; the bottom flexible region has a matching modulus, buffering bending stress; the top high-inorganic-content region forms a dense barrier layer, achieving high water and oxygen barrier protection; through molecular chain interpenetration or chemical bonding, the coating and substrate form an integrated structure, significantly improving bending lifespan.

The application discloses a molecular property prediction method based on spectral position coding and bionic side inhibition gating, and relates to the field of olfactory perception. The method comprises the following steps: constructing a molecular structured input comprising atomic types, a Coulomb matrix and graph Laplacian eigenvector; fusing atomic chemical attributes and spectral domain topological positions through a feature extraction module to generate initial atomic features; using a multi-scale aggregation module, hierarchical neighborhood aggregation is carried out based on preset scale constraints to extract multi-level structure features covering chemical bonds, functional groups and molecular skeletons; with the help of a global interaction module of bionic side inhibition gating, local features are dynamically modulated by a global query signal to realize adaptive denoising and semantic sharpening; finally, through mask pooling and a decoupled multi-label prediction head, the scores of each odor attribute of the molecule are output. The application significantly improves the accuracy, structure perception ability and cross-task generalization performance of molecular property prediction.

The application belongs to the field of organic solar cell materials, and discloses an organic photoelectric compound based on a vinylcarbazole phosphonic acid structure and a preparation method and application thereof, the organic photoelectric compound has the following four structures: The organic photoelectric compound based on the vinylcarbazole phosphonic acid structure of the application forms firm chemical bonding with a metal oxide electrode (such as ITO or ZnO) through a phosphonic acid group, effectively passivates surface defects, and optimizes energy level alignment; meanwhile, the polymer main chain endows the material with excellent film-forming property and covering capacity, can form a uniform, dense and stable interface layer on the electrode, thereby significantly inhibiting charge recombination, improving carrier selective transmission efficiency, and enhancing the stability of the device in long-term operation and complex environment. The system provides an effective material solution for constructing an OPV device with high performance, high stability and suitable for large-area processing.

An oral pouch comprising a pouch envelope made of a chemically bonded nonwoven fabric which contains cellulose fibers and during the production of which an additional crosslinking agent that can form a covalent chemical bond, e.g. by means of ester or ether bonds, with cellulose molecules was added to the binder, and said oral pouch comprising a filling material arranged in the pouch envelope.

The application discloses an anti-ultraviolet heat-insulating polypropylene material and a preparation method thereof, and relates to the technical field of high-performance polypropylene, which comprises the following components: 65-85 parts of polypropylene resin, 5-20 parts of a compatilizer, 3-30 parts of a filler, and 0-5.0 parts of an auxiliary agent; the filler is composed of hollow glass beads with low thermal conductivity and mica powder with sheet layer barrier capacity, and the filler is surface-modified; the anti-ultraviolet compound is chemically bonded to the surface of the filler through Zn-Ti co-deposition and PDA-mediated grafting reaction, the polarity of the filler is improved, the dispersibility of the filler in the polypropylene resin is improved, the interfacial bonding force between the polypropylene is improved, the stress concentration is reduced, the tensile strength and impact toughness of the material are improved, and the overall mechanical property is enhanced; the modified filler can effectively absorb UVB / UVA, the hydroxyl phenyl structure of the modified filler can effectively quench free radicals, and the ultraviolet shielding property of the modified filler and the polypropylene material is improved.

This application provides a quantum optical microcavity device modified with fluorinated organophosphonic acid and its fabrication method, relating to the fields of organic chemistry and optical engineering. The quantum optical microcavity device includes a microcavity body and a fluorinated organophosphonic acid monolayer attached to the surface of the microcavity body. A hydrophobic fluorinated organophosphonic acid monolayer is formed on the surface of the microcavity body through a chemical reaction between a mixed solution containing fluorinated organophosphonic acid molecules and the surface of the microcavity body. Since the active head groups of the fluorinated organophosphonic acid can form chemical bonds with –OH and Si–O–Si on the surface of silica through reaction, the adsorption of water molecules from the air onto the –OH and Si–O–Si on the surface of the silica microcavity body can be effectively suppressed, thus improving the Q-value stability of the whispering-gallery mode quantum optical microcavity device.

The present application provides a PSMA-targeting ligand compound and chelate thereof and use thereof. The structure of the PSMA-targeting ligand compound is shown in formula I, wherein R1, R2 and R4 are each independently selected from H and optionally substituted C1-C5 linear or branched alkyl; R3 is selected from optionally substituted aryl ring group and optionally substituted aromatic heterocyclic group; X is a sulfur or oxygen atom; Y is selected from a chemical bond and -NH-(CH2)m-, wherein m is an integer selected from 0-18; and Z is a radioactive metal ion chelating group. The pharmacokinetic characteristics of the PSMA-targeting ligand compound are obviously improved, which can be more effectively absorbed by the human body, stably exist in the body, and be taken up and internalized by cancer cells, so that the coupling of the radioactive nuclide can obtain cancer treatment drugs and diagnostic reagents with obviously improved therapeutic effect.

The application discloses a kind of super-hydrophobic self-cleaning paint for mortar mixing barrel, coating and preparation method thereof.The paint includes, by mass fraction: epoxy resin 10-15 parts, epoxy modified silicone resin 5-15 parts, hydroxyl functionalized submicron alumina 15-20 parts, isocyanate functionalized nano-alumina 5-10 parts, dispersion medium 50-60 parts and auxiliary agent 0.5-2.5 parts.The application forms core-shell structure by two kinds of functionalized alumina chemical bonding, combines epoxy modified silicone resin, and constructs stable micro-nano composite rough surface.The coating prepared from the paint has static water contact angle of 165° or more, still maintains super-hydrophobic property after 50 times of sandpaper abrasion and 7 days of high temperature treatment at 180℃, and surface morphology is perfect after 50 days of simulated seawater immersion, solving the problem that existing coating is difficult to consider super-hydrophobic, wear-resistant, high-temperature resistant and corrosion-resistant property.

This invention relates to the field of porous thermal insulation materials, and discloses a fireproof and heat-insulating material and its preparation method. The material is an aerogel comprising a polyimide framework, two-dimensional transition metal carbonitride nanosheets, and phytic acid. The aerogel contains multiple unidirectional, parallel tubular or layered channels, each surrounded by a pore wall. The pore wall is composed of a cross-linked network formed by chemical bonds connecting phytic acid, two-dimensional transition metal carbonitride nanosheets, and the polyimide framework. This invention uses phytic acid as a cross-linking agent and an in-situ catalytic charring agent, overcoming the defect of easy agglomeration of nanosheets and generating a dense carbonized layer upon heating, effectively supporting the pore walls and preventing the porous framework from collapsing. Combined with the heat conduction blocking effect of the unidirectional channels, the material exhibits excellent low thermal conductivity, high mechanical strength, and extremely stable high-temperature shrinkage insulation properties, making it suitable for fireproof and heat-insulating protection in extreme environments.

This invention relates to a high-temperature resistant industrial coating and its preparation method. The method includes: amylating Fe3O4 nanoparticles; grafting the amylated Fe3O4 nanoparticles with polybenzimidazole to obtain PBI-g-Fe3O4 composite particles; in-situ growing MOF to form polyMOF; and surface modification with a hydrophilic silane coupling agent to obtain a hydrophilic modified polyMOF; simultaneously, co-grafting silica nanoparticles with an aminosilane coupling agent and a long-chain alkylsilane coupling agent to obtain a synergist; finally, dispersing all components in an aqueous polyester resin varnish to prepare a composite coating. This invention achieves stable dispersion and strong interfacial bonding of polyMOF in aqueous polyester through a multi-level chemical bonding structure. The synergist synergistically provides curing and defoaming effects. The resulting coating exhibits grade 0 adhesion, excellent defoaming performance, a pencil hardness of 3H, and a temperature resistance limit of 640℃, showing broad application prospects in the field of high-temperature protection.

The application provides a low-corrosion TOPCon silver paste, a preparation method and application thereof, and belongs to the field of solar cells. The TOPCon silver paste is composed of the following components: 40-70 parts of silver powder, 5-25 parts of silver-coated tungsten, 1-5 parts of glass material, 1-5 parts of modified nano calcium carbonate, 10-15 parts of organic carrier, and 0.5-2 parts of organic additive. The modified nano calcium carbonate is uniformly dispersed on the surface of the glass powder through physical adsorption and chemical bonding, can reduce the corrosion of the silver paste to the surface of the silicon wafer, and maintains the integrity of the surface of the silicon wafer. Meanwhile, the modified nano calcium carbonate forms a dense conductive network in the sintering process, reduces the contact resistance, and improves the conversion efficiency of the battery. In addition, the modified nano calcium carbonate improves the interfacial bonding force between the silver paste and the silicon wafer, enhances the adhesion and tensile strength of the silver paste. Therefore, the corrosion resistance, conductivity and mechanical properties of the silver paste for the TOPCon battery are improved.

The application discloses a kind of heterojunction type indium oxide-based integral photocatalytic foam ceramics and its preparation method and PFAS degradation application. Indium oxide powder, hetero-structure component, various additives and reinforcing fibers are made into composite slurry, through organic foam impregnation forming, and then dried, degummed and sintered to prepare finished product. In the sintering stage, interface chemical bonding is realized by in-situ solid-phase reaction, S-shaped and Z-shaped charge transfer heterojunction is constructed, and the separation efficiency of photo-generated carriers is greatly improved. The material has high porosity and excellent mechanical strength, and relies on the advantages of double potential to build a redox synergistic defluorination system, generating multiple active species, which can effectively break the high-energy C-F bond and achieve efficient degradation and deep defluorination mineralization of PFAS pollutants such as PFOA and PFOS.

The application relates to the technical field of high polymer materials, in particular to a non-silicon release liquid and a release film, wherein the non-silicon release liquid comprises the following components in proportion by weight: a non-silicon release agent 18-36 parts; modified barium sulfate 2-4 parts; toluene 58.5-79.5 parts; a wetting agent 0.5-1.5 parts. The non-silicon release liquid provided by the application has excellent release performance through the synergistic effect among the components, and the non-silicon release agent can be combined with the PET base material through a chemical bond, so that the addition of the non-silicon release agent does not affect the mechanical properties of the film.

This invention relates to the field of polymer material additives, and discloses an environmentally friendly calcium-zinc composite PVC heat stabilizer and its preparation method. The heat stabilizer is a multi-level core-shell structure particle composed of three parts: (a) a functionalized hydrotalcite core intercalated with β-diketone and polyol; (b) a calcium / zinc metal soap inner shell chemically bonded to the core surface via a silane coupling agent; and (c) a lanthanum-organic complex outer shell coating the outermost layer containing unsaturated double bonds. The preparation method includes: preparing the functionalized core, grafting a silane coupling agent, in-situ co-precipitation to generate the inner shell, and solvent evaporation to coat the outer shell. This invention ensures the integrity of the composite particle structure and the synergistic effect of each component by constructing a stable chemical connection between the core and shell. Through intercalation and final chemical grafting, the migration and precipitation problems of the additives are fundamentally solved.

A busbar covered with a cladding layer and a cladding method thereof. The busbar comprises a metal conductor base and a composite insulating layer formed on the surface of the metal conductor base by a reactive co-extrusion process; the composite insulating layer comprises a polyethylene-based adhesive inner layer in direct contact with the metal conductor base; the raw materials for preparing the polyethylene-based adhesive inner layer comprise, by weight fraction, PA12 75%-85%, antioxidant 0.1%-1%, anti-UV additive 0.1%-2%, color powder 0.5%-5%, and special additive 5%-20%. Through the synergy of material end group design and reactive co-extrusion process, a stable chemical bonding network is constructed in situ at the interface while continuously producing rapidly, which greatly improves the interlayer bonding force, heat aging resistance and long-term reliability of the cladding layer, and is particularly suitable for high-voltage battery systems of new energy vehicles with extremely high requirements for insulation and durability.

The invention discloses a pyrazolo [5, 1-a] isoindole derivative as well as a synthesis method and application thereof, and belongs to the technical field of organic chemical synthesis. The invention solves the problems of harsh reaction conditions, limited substrate range and the like of continuous multi-step synthesis of a precursor in the existing pyrazolo [5, 1-a] isoindole compound synthesis process. According to the invention, a polarity reversal strategy is adopted, a cyano group is introduced into 1, 5-enyne to change the electronic characteristics of 1, 5-enyne, diazo, olefin and ethynyl benzene are reacted under mild conditions, two rings and three new chemical bonds are constructed through a series of intermolecular [3 + 2] cycloaddition, intramolecular cycloaddition and elimination reactions, and pyrazolo [5, 5-a]-1, 5-a-phenanthrene is efficiently synthesized. According to the present invention, the 1, 1-a] isoindole derivative has characteristics of good synthesis yield, simple operation of the synthesis method, easily available raw materials, good substrate universality and step economy, and provides the effective strategy for the drug design synthesis.

This invention relates to a PEDOT solution, an electrochemical sensing electrode, and a preparation method thereof, comprising 75-200 parts of a PEDOT:PSS aqueous dispersion, 3-10 parts of an organic solvent, and 0.3-2 parts of a crosslinking agent, wherein the crosslinking agent is a silane coupling agent. Through the synergistic ratio of these components, a composite functional layer is formed on the electrode surface, solving the problems of insufficient interfacial wetting and electro-drift caused by the hydrophobicity of traditional electrode substrates, ensuring stable solid-liquid interfacial contact between the electrode and detection media such as aqueous solutions and sweat. Simultaneously, the three-dimensional network structure constructed by the crosslinking reaction allows the composite functional layer to form a strong chemical bond with the electrode substrate, effectively avoiding problems such as modification layer detachment and swelling. This application replaces traditional electroplating processes, is suitable for integrated products such as wearable sweat patches, avoids problems such as electrolyte corrosion of the substrate and short circuits, and is suitable for the modification needs of embedded, irregularly shaped, and array electrodes.

This invention belongs to the field of polymer composite materials technology, specifically relating to a pole frame insulating composite material and its preparation method. The pole frame insulating composite material comprises polyphenylene sulfide resin, surface-modified reinforcing fibers, composite insulating filler, interfacial compatibilizer, and composite anti-aging agent. The composite insulating filler is composed of micron-sized and nano-sized insulating particles, constructing a multi-scale charge trap network within the matrix. This invention also introduces piezoelectric ceramic functional modulator filler, utilizing the internal residual stress generated during integrated injection molding for in-situ pre-polarization, actively suppressing local electric field spikes. The preparation method includes raw material pretreatment, filler premixing modification, melt blending extrusion, stress-relief annealing, and integrated injection molding. This invention achieves a systematic improvement in the pole frame insulating composite material's high dielectric strength, high mechanical properties, and chemical corrosion resistance through interfacial chemical bonding and multi-scale structural synergy.