Patent classifications
B05D7/586
METHODS OF PREPARING POROUS WOOD PRODUCTS FOR PAINTING AND FINISHING
Methods of preparing porous wood products for painting or finishing are described. The methods comprise applying to a porous wood product a UV-curable coating and curing by UV light the top UV curable coating to 70% to 95% cure, preferably 85% to 95% for spray-applied top UV curable coatings to produce a partially cured porous wood product. The methods typically further include the step of sanding the surface of the partially cured porous wood product and painting or staining, for example with a water-based or solvent-based stain or paint.
STAINED WOOD PRODUCT AND METHOD OF STAINING A WOOD PRODUCT
A method of staining a wood product includes sanding a surface of the wood product, wire brushing the surface to expose open grains in the wood product, applying a first coat of a toner to the surface of the wood product that penetrates into the open grains of the wood product, applying a second coat of the toner to the surface of the wood product after applying the first coat, applying a glaze to the surface of the wood product after applying the second coat of the toner, and applying a top coat to the surface of the wood product after applying the glaze.
Self-sealing coating for fuel tanks
A method of forming a self-sealing fuel tank includes: providing a container including internal surfaces and external surfaces and configured to hold a fuel; forming a latex coating layer over at least a portion of the internal surfaces and/or external surfaces; depositing or encapsulating an environmental layer over at least a portion of the latex coating layer; where the latex coating layer swells when contacted with the fuel; and where the latex coating layer is formed from a latex coating composition that is substantially free of a non-ionic associative thickener.
LOW VOLTAGE REDUCED GRAPHENE OXIDE (RGO)-BASED BIOSENSOR
In some embodiments, a method includes applying an analyte to a rGO biosensor configured to bind to the analyte; applying a DC voltage to the rGO biosensor, wherein the DC voltage is +0.0008V to +0.005V for a negatively charged analyte; or ?0.005V to ?0.0008 for a positively charged analyte; and monitoring an electrical signal from the rGO biosensor for a response to the analyte.
Surface treatment composition for coated steel sheet, surface treated plated steel sheet and method of production of same, and coated plated steel sheet and method of production of same
An aqueous surface treatment composition for coated steel sheet securing sufficient working adhesion while causing the formation of a surface treatment layer imparting excellent overhang corrosion resistance even without containing chrome, that is, a surface treatment composition containing a specific organic silicon compound, hexafluorometallic acid, a urethane resin having specific cationic groups, a vanadium compound, and an aqueous medium and sufficiently securing working adhesion while imparting excellent overhang corrosion resistance by the urethane resin having cationic groups and a total amine value of specific values is provided.
Methods of preparing porous wood products for painting and finishing
Methods of preparing porous wood products for painting or finishing are described. The methods comprise applying to a porous wood product a UV-curable coating and curing by UV light the top UV curable coating to 70% to 95% cure, preferably 85% to 95% for spray-applied top UV curable coatings to produce a partially cured porous wood product. The methods typically further include the step of sanding the surface of the partially cured porous wood product and painting or staining, for example with a water-based or solvent-based stain or paint.
Method for producing a directly printed panel
The present invention relates to a panel as well as a method for producing a panel, in particular a wall- ceiling- or floor panel. The method according to the invention provides that a layer of liquid radiation curing acrylate with a low Martens hardness is applied on a support layer in a first step. This is followed by an application of an intermediate layer in a second step and thereafter the application of a further layer wet-on-wet, which as a Martens hardness after curing which is larger than the Martens hardness of the first applied layer. The resulting panel has an intermediate layer with an inhomogeneous hardness profile due to the wet-on-wet application which leads to particularly advantageous properties.
METHOD FOR APPLYING A TRACTION COATING TO A BATHING IMPLEMENT
A method for applying a traction coating to a bathing implement; the method involves providing a bathing implement. The bathing implement may be prefabricated and of any dimensions. At least one surface of the bathing implement is cleaned with a cleaning agent. The cleaning involves removing any particulates that may be on the surface of the bathing implement. A stencil is secured to the surface of the bathing implement that had been cleaned of any debris and particulate matter. A base coat of silicon rubber may then be applied to the surface. The base coat applied may not be less than 1 millimeter thickness and may not exceed 4 millimeters of thickness. The base coat of silicon rubber may then be cured from a liquid state to a substantially solid state.
Substrate coatings: systems, methods, and techniques
Systems and methods relate to applying a coating to a substrate. Coatings can be generated using layer-by-layer application techniques. Typically, application of a first aqueous solution is alternated with application of a second aqueous solution. Example first aqueous solutions include polyethyleneimine (PEI) and hydroxy-terminated poly(dimethylsiloxane) (PDMS-OH). Example second aqueous solutions include silicate and PDMS-OH. In some instances, first aqueous solutions and/or second aqueous solutions additionally include methyl-terminated PDMS (PDMS-CH.sub.3).
Radar-Compatible Plastic Part
A radar-compatible plastic part that has a surface provided with a colouring coating that is free from metal-effect pigments; a process for the production of a radar-compatible plastic part of this type; and the use thereof in vehicle construction. The radar-compatible, coated plastic part is suitable for use for cover parts of radar devices, omits conventional metal-effect pigments in its colouring coating, and has a silver-coloured metallic appearance, high hiding power, and a strong lightness flop, and at the same time, a good radar wave transparency.