1021 results about "Polyvinyl butyral" patented technology

The invention discloses a specific nanometer paint of energy-saving environment-protective typed aluminium alloy section bar (door and window), which comprises the following parts: 90-100% filming agent, 0.1-10% hardener, 0.5-8% levelling agent, 0.5-10% nanometer material, 20-50% fill and 10% hollow microball, wherein the filming agent is one or more of epoxy resin, polyester resin, acrylic acid resin, amino resin, phenol resin or alkide resin; the hardener is one or more of dicyandiamide, imidazole, dihydrazide, polybasic carboxylic acid, beta-hydroxyalkyl amide or triglycidol isocyanuric ester hardener; the levelling agent is one or more of polyacrylic resin, siliceous acryl resin, polyvinyl butyral, benzoin, hydrocastor oil, cellulose acetate butyrate or epoxy soy oil; the nanometer material is nanometer zinc oxide; the hollow micro-ball is hollow ceramic microball.

Described certain plasticized poly(vinyl butyral) (PVB) interlayer sheets that may be used to produce safety glass and solar cell laminates having enhanced penetration resistance and adequate adhesion levels. In particular, the stress value of these interlayer sheets at an elongation of 120% is preferably in the range of from about 8 to about 15 N/mm².

Certain example embodiments relate to a head-up display system for a vehicle having a windshield. First and second substantially parallel spaced-apart substrates sandwich a polymer-inclusive interlayer. An anti-reflective coating is provided on a surface of one of the first and second substrates. The anti-reflective coating is arranged so as to optically remove or block at least some of light rays produced by an image source of the head-up display system so as to reduce the occurrence of multiple images being produced by the image source. The anti-reflective coating is provided on a surface of the first or second substrate opposite the polymer-inclusive interlayer. In certain example embodiments, the polymer-inclusive interlayer may include polyvinyl butyral and/or may have a substantially uniform thickness.

Composite laminate interlayers for adhering a glass laminate comprising a sheet of polyethylene terephthalate (PET) between layers of plasticized polyvinyl butyral (PVB) adhesive layers, wherein at least one of the PVB adhesive layers is stiffened, e.g. by reduction in the amount of plasticizer, and has a glass transition temperature greater than 35° C. The PET is preferably 0.075 to 0.25 mm (3-10 mils) thick and can have a functional coating for reducing radiation, e.g. UV or IR or visible light, transmission through the glass laminate. The laminate can also comprise at least one elastomeric layer adapted to reducing sound transmission through the glass laminate. The laminates exhibit enhanced maximum flexural modulus of greater than about 350 Newtons/centimeter.

The invention discloses a production method of hot stamping foil, which adopts six production process flows: release coating, protective layer coating, color layer coating, accurate aluminizing and curing glue layer coating. In the whole production process, water soluble glue, water soluble ink and water soluble gloss oil are used to realize the integrated production of the hot stamping foil, methacrylates and monomers which are emulsified and polymerized are mixed in a certain ratio, a dye leveler, thickener and the like are added in the mixture, the resulting product is coated and dried, polyvinyl butyral-based glue is coated, and the whole production of the hot stamping foil is finished. The hot stamping foil produced by the process has the characteristics of energy conservation, environmental protection and sanitation.

The invention relates to a production method of an environment-friendly water-soluble gum electrochemical aluminothermic transfer printing film. The production method comprises the following steps: a PET film of 6 to 15 micron is adopted as a carrier film; the carrier film is sequentially provided with four coatings such as a releasing layer, a color layer, an aluminum layer and an adhesive layer; wherein the releasing layer, the color layer and the adhesive layer coat the coating materials on a PET basal membrane substrate by a smooth roll or an anilox roll in a forward coating mode or backward coating mode; the aluminum layer is spray-plated in a vacuum spray-plating mode; the invention adopts the environment-friendly material and the production technique to produce the aluminothermic transfer printing film product, and the key points are as follows: solvent based acrylic resin, ethylene-vinyl acetate resin, ketone resin and cellulosic resin hot melt adhesive are changed into cellulose acetate and products made by cellulose acetate; and vinyl cellulose, polyvinyl butyral and powdery silicon dioxide are synthesized by water and a mixed solvent in a mode of wetting and dispersing. The production method has the characteristics of having no solvent residue harmful to human body and being beneficial to environmental protection and the like.

A reflector (e.g., mirror) for use in a solar collector or the like is provided. In certain example embodiments of this invention, a reflector is made performing at least the following steps: (a) forming a reflective coating on a flat glass substrate, (b) cold-bending the glass substrate with the reflective coating thereon; and (c) applying a plate or frame member (e.g., another glass sheet/substrate, or alternatively a thermoplastic member) to the cold-bent glass substrate, the plate or frame member for maintaining the coated glass substrate in a desired bent orientation. In certain example embodiments, the reflective coating is a mirror coating and includes a passivating film including tin oxide and/or silane(s) for better adhering to the polymer based glue/adhesive/laminating layer which may be made of polyvinyl butyral (PVB) or the like.

Solvent based poly(urethane/urea) resins suitable for formulating flexographic and gravure laminating printing ink and coating compositions formed from a poly(urethane) prepolymer solution made from a blend of polymeric diols and diols reacted with diisocyanates and then with diamine in an organic solvent. The resin is prepared by adding the poly(urethane) prepolymer solution at a controlled rate to the diamine in a organic solvent which allows a resin solution to be formed, which may be used in the formulation of laminating printing ink and coating compositions without the need for adjuvants, grinding in polyvinyl butyral or blending with nitrocellulose base.

The invention relates to a metal-film porous ceramic heating element and application thereof, more particularly to a metal-film porous ceramic heating element and application thereof in an electronic cigarette atomizer. A preparation method of a metal-film porous ceramic heating element comprises: electrothermal alloy powder and glass powder are mixed uniformly to obtain a metal powder mixture; terpineol, ethyecellulose, dibutyl phthalate, polyvinyl butyral and oleic acid are mixed uniformly to obtain an organic carrier; the metal powder mixture and the organic carrier are mixed uniformly to obtain a metal paste; and the metal paste is coated on a porous ceramic substrate by screen printing, and sintering is carried out to obtain a metal-film porous ceramic heating element. The process is simple and is easy to control; and large-scale industrial application can be realized conveniently. And the prepared metal-film porous ceramic heating element is especially suitable for an electronic cigarette atomizer.

The invention relates to a method for preparing an electrolyte ceramic membrane of a lithium ion battery, in particular to a tape casting method for preparing the electrolyte ceramic membrane of the lithium ion battery, and belongs to the field of ion conductive ceramic materials. The invention adopts the tape casting method; ceramic powder with a chemical formula of Li1.4Al0.4(Gel-xTix)1.6(PO4)3(wherein x is equal to 0-1.0) is selected as raw material powder; triethanolamine or phosphate are selected as a dispersing agent; ethanol, propyl alcohol, butanone, triclene, or azeotropic solution prepared from any two of the ethanol, propyl alcohol, butanone and triclene is selected as a solvent; polyvinyl butyral (PVB) is selected as an adhesive; polyethylene glycol or dibutyl phthalate is selected as a plasticizer; the range of solid content of slurry is controlled between 18 and 30vol percent; the uniform slurry is prepared through ball milling, and then is prepared into a green belt bythe tape casting method, and the green belt is subjected to heat treatment to form the electrolyte ceramic membrane; and the electrolyte ceramic membrane has good strength and toughness, and can be applied to actual production.

The invention relates to an anti-reflection, low-radiation and easy-cleaning coated glass capable of roasting and bending and a manufacture method of the coated glass. The glass is an anti-reflection, low-radiation and easy-cleaning coated laminated glass capable of roasting and bending, and the anti-reflection, low-radiation and easy-cleaning coated laminated glass capable of roasting and bending is formed by sequentially overlapping anti-reflection and low-radiation coated glass with polyvinyl butyral and a glass plate B, wherein the anti-reflection and low-radiation coated glass is structured by comprising a TiO2 photocatalyst layer, an anti-reflection film layer, a glass plate A and a low-radiation film layer which are overlapped from top to bottom in sequence. Compared with the prior art, the laminated glass manufactured from the anti-reflection, low-radiation and easy-cleaning coated glass has an easy-cleaning characteristic, also has the effects of increasing the visible light transmittance by 3 to 4% and reducing the visible light reflectance from 12 to 15% to 3 to 4%, can prevent the sight from being interfered by a projection of a matter in a car on the glass during driving, and has the visible light transmittance not less than 70% and sun light transmittance not greater than 50%; and the anti-reflection, low-radiation and easy-cleaning coated glass capable of roasting and bending is particularly suitable for a front windshield of the car.

A bake-bent low-radiation coated glass relates to coated glass, in particular to low-radiation coated glass. The invention provides a low-radiation coated glass and an interlayer thermal-insulation glass composed of the low-radiation coated glass, wherein the film structure of the low-radiation coated glass comprises a glass plate, a first dielectric layer, a low-radiation layer, a second dielectric layer, and a protective layer, wherein the film structure of one embodiment comprises a glass substrate SiOx/SiOxNy/SnOx/NiCrOx/ZnSnOx/Ag/NiCrOx/SnOx/SiOxNy film from inner to outer at the glass plate, the low-radiation coated glass, PVB (polyvinyl butyral) and another glass plate are layered to form an interlayer thermal-insulation glass which visible light transmission is more than 76% and solar energy transmission is lower than 53%, therefore, the interlayer thermal-insulation glass is particularly applied on vehicle front shield glass.

The invention relates to a self-fixed zinc-rich primer using for anticorrosion inside an oil tank and a preparation method thereof. The self-fixed zinc-rich primer comprises A solution which consists of tetraethyl orthosilicate, butanol, ethanol, butyl acetate, dibasic ester, 36-38 percent of hydrochloride and distilled water, and B solution which consists of polyvinyl butyral (PVB), butanol, ethanol, zinc powder, ultrafine ferrophosphorus powder, mica powder, fly ash, alkoxy ammonium salt with acidic group and block copolymers, and polysiloxane-polyether copolymer, when in use, the A solution and the B solution are mixed and solidified to form a paint film which is characterized by self-repairing, corrosion resistance, solvent resistance, static conducting, rapid drying and good construction adaptability, etc. The self-fixed zinc-rich primer can be used for surface anticorrosion treatment of steel structures used in inner walls and outer walls of various storage tanks and offshore drilling platforms, etc.

The present invention is a laminate article comprising at least three layers of plasticized polyvinylbutyral (PVB) sheet, wherein at least one layer of the laminate is a stiff PVB sheet and at least two layers are soft PVB sheets. A laminate article of the present invention is useful for providing increased protection from damages occurring to automobiles, buildings, and windows by virtue of exposure of same to, for example, hurricane force winds, impact from debris propelled by high-force winds, or by intentional impact against windows comprising the laminates of the present invention.

[Problem to be Solved]

The object of the present invention is to provide an intermediate film for a laminated glass having excellent transparency, adhesion, impact resistance and penetration resistance as well as excellent light resistance and weather resistance, and scarcely turning yellow in a heating treatment during its preparation.

[Means for Solving Problem]

An intermediate film for a laminated glass comprising a laminate consisting of a layer (PVB layer) of a composition comprising polyvinyl butyral and a layer (EVA layer) of a composition comprising ethylene/vinyl acetate copolymer containing an organic peroxide, wherein the composition comprising polyvinyl butyral contains a benzophenone compound as an ultraviolet absorber; a laminated glass; and a process for the preparation of the same.

The invention relates to a method for preparing activated carbon. The method comprises the following steps of: weighing one of soluble phenolic resin, furfuryl alcohol resin, polyacrylonitrile and soluble starch, a carbon precursor polymer and one pore-forming agent of polyethylene glycol, polyvinyl alcohol and polyvinyl butyral, mixing, and adding one of methanol, ethanol and deionized water as a solvent for dissolution; and weighing the activated carbon raw material, adding into the solution for dipping, then drying, and carbonizing in a microwave high-temperature sintering furnace at the temperature of 500-1100 DEG C in a nitrogen atmosphere for 0.5-24h. According to the method for preparing activated carbon, provided by the invention, an activated carbon product prepared by the method has abrasion resistance and micropore porosity which are equivalent to those of the raw material activated carbon; and furthermore, the mesopore porosity is further increased in comparison with the raw material activated carbon, and the activated carbon has the advantages of double aperture distribution, large specific surface area and high abrasion resistance, and can meet the application requirements under specific conditions.

The invention discloses a method for preparing a silicon-nitride ceramic substrate through silicon-powder tape casting, and belongs to the technical field of insulation substrates. The method includes the steps that silicon powder and an inorganic burning-assisting additive serve as raw materials, castor oil serves as a dispersing agent, and polyvinyl butyral serves as a binding agent; according to the chemical state and the particle size of the surface of the silicon powder, a plasticizer capable of allowing the silicon powder to be subjected to tape casting is added, and a large-area green blank which is adjustable in thickness, smooth in surface and free of crack and pore is prepared; the green blank is subjected to rubber discharging to be sintered at the high temperature, and the silicon-nitride ceramic substrate with the heat conductivity larger than 50 W.m<-1>.K<-1>, the bending strength larger than 600 MPa and the fracture toughness larger than 8 MPa.m<1/2>is prepared.

The invention relates to a polymer solid electrolyte film and a preparation method thereof, which belong to the field of solid electrolyte. The solid electrolyte consists of polyvinyl butyral (PVB), lithium-bearing inorganic salt and a plasticizer, namely low molecular polyethylene glycol. The compositions in weight percentage of the polymer solid electrolyte film are 30 to 75 percent of the polyvinyl butyral, 10 to 85 percent of the lithium-bearing inorganic salt and 5 to 70 percent of the plasticizer. The preparation method comprises the following steps: the lithium-bearing inorganic salt is uniformly mixed with an organic solvent; the polyvinyl butyral powder is slowly added into the mixture and continuously stirred for 30 to 50 minutes; and finally the plasticizer is added. The invention increases the motion of polyvinyl butyral (PVB) segmers and improves the ionic conductivity of the solid electrolyte through the addition of the plasticizer; the room-temperature conductivity of the macromolecular solid electrolyte film prepared is about 10<-5>Scm<-1>, and the conductivity at the temperature of below 60 DEG C is about 10<-3>Scm<-1>; and the film-forming property and the mechanical property are good.

The invention discloses a production process of laminated glass. The production process comprises the following steps of (1) selection and storage of polyvinyl butyral (PVB) adhesive sheets; (2) glass wiping, (3) sheet combination operation; (4) pre-pressing exhaust; and (5) high-pressure molding. Under the control action of a standard process, bubbles can be prevented from being formed at the edge of the laminated glass; meanwhile, the phenomena of explosion, glass radian out-of-tolerance, edge bubble adhesive failure, edge adhesive shrinkage, interlayer inclusion and the like are effectively controlled.