Abstract:
A substrate having a burnable coating mask includes: a substrate having a first section and a second section; a mask coating layer over the first section of the substrate; and a functional coating layer over at least a portion of the mask coating layer and over the second section of the substrate. A method of segmenting a substrate having a layer thereover, a method of preparing a segmented substrate having a layer thereover, a segmented substrate, and a transparency are also disclosed.
Abstract:
Coated substrates, methods of coating substrates, and coatings for substrates are provided. In an exemplary embodiment, a method for coating a substrate includes coating the substrate with a primer to form a primer layer, where the primer comprises a primer conductivity additive, a primer adhesion promotor additive, a primer binder, and primer volatiles. The primer layer is flash dried to reduce the primer volatiles to about 20 weight percent or less. The primer layer is coated with a total color coat layer prior to curing the primer layer, and then the total color coat layer and the primer layer are cured to form a cured substrate coating. The cured substrate coating has a substrate coating percent transmissivity of specified amounts or less at four different wavelength ranges, and the cured primer layer has a primer layer transmissivity less than that of the substrate coating percent transmissivity.
Abstract:
To provide a method for producing a porous film in which even when minute fine particles are used, fine particles can be satisfactorily dispersed, a method for producing a composition for producing a porous film, and a porous film that can be produced by the method for producing a porous film. When a porous film is formed using a varnish including at least one resin component selected from the group consisting of polyamide acid, polyimide, a polyamide-imide precursor, polyamide-imide and polyethersulfone, and fine particles, varnish is produced by dispersing the fine particles by using a pressure device that pressurizes slurry including the fine particles and a dispersing device provided with a flow path whose cross-sectional area is 1960 μm2 or more and 785000 μm2 or less, and allowing the slurry pressurized to 50 MPa or more to pass through the flow path.
Abstract:
The method for flame spraying thermoplastic powders provides to heat the article to be coated at a suitable working temperature and to feed the said thermoplastic powders, transported by an inert gas, a flow of compressed air and a flow of liquefied petroleum gas through respective separated discharge chambers (7, 9, 12), shaped inside a mixing device (1) of a spray gun. The thermoplastic powders are then projected, in a resulting flow (30), on the heated surface of the article to be coated, to determine the melting of the same powders at their contact with said heated surface. At least one couple of flows (31, 32) of compressed air is sprayed converging towards the resulting flow (30) flowing out of the mixing device (1), giving the resulting flow (30) a substantially flattened fan shape.
Abstract:
The present invention provides a method for manufacturing a decorative construction plate, the method including subjecting a metal siding material including: a metallic substrate on which a recess-projection pattern having a height difference of 0.5 mm or more is formed and on which an ink receiving layer formed from a resin composition is provided; a core material; and a back-side material, to flame treatment by exposing the metal siding material to flame with an output of 250 kJ/h to 12000 kJ/h per 10-mm width of a flame port of a burner so that the surface temperature of the substrate does not exceed 300° C., followed by performing inkjet printing using an active ray curable ink.
Abstract:
A sol-flame method includes 1) forming a sol-gel precursor solution of a source of a dopant; 2) coating a nanostructure or a thin film with the sol-gel precursor solution; and 3) subjecting the coated nanostructure or the coated thin film to flame annealing to form a doped nanostructure or a doped thin film.
Abstract:
The present invention relates to a method for changing translucency of zirconia dental materials through applying an yttrium or ytterbium salt solution onto a pre-sintered zirconia material by dipping or brush-coating. Accordingly, the need of young patient in relation to the translucent requirement for incisal portion of anterior teeth is met in which the translucent level from the crown neck to the incisal portion is gradually changed in a natural manner, similar to natural teeth. A color gradient effect of the crown is produced through dipping in or brush-coating with yttrium or ytterbium salt solution. Moreover, the present invention involves simple operating steps and low cost while providing high consistency in quality.
Abstract:
A coater for coating a material with a solution or a suspension includes an access door and a process port separately openable within a housing. A rotating coating drum is removably connected with respect to the coater and the coater is configured for exchange of drums having a wide range of production capacities.
Abstract:
An enamel bead-making system involves a novel bead-pulling station and a mandrel (slender rod). The mandrel is for manually dipping a preheated metal bead core into a container of glass powder so that the powder melts and later solidifies on the core, thereby creating an enamel or glass coated bead. To safely remove the hot enamel bead from the mandrel, the mandrel is manually pulled through a V-notch in an upper edge of the bead-pulling station, which forces the bead off the end of the mandrel and into a collection area for cooling. A second V-notch allows a subsequent bead to be removed and cooled at a location spaced apart from the first one. If a bead sticks on the mandrel, the mandrel can be pushed through a small hole in the bead-pulling station, which helps break a glass bond that might develop between the mandrel and the enamel bead.
Abstract:
A method of metallizing the surface of a substrate electrolessly, by spraying one or more oxidation-reduction solutions thereonto. The steps of this method include: a) physical or chemical treatment to reduce the surface tension of the substrate before metallization; b) electroless metallization of the surface of the substrate treated in step a), by spraying one or more oxidation-reduction solutions in the form of one or more aerosols thereonto; and c) formation of a top coat on the metallized surface. Compact devices for implementing this method and the products obtained are also disclosed.