Abstract:
A coating machine component, e.g., a bell plate for a rotary atomizer, and corresponding production methods are disclosed. An exemplary coating machine component includes a molded base body and a functional element for providing at least one of mechanical stiffening, chemical and/or electrical functionalizing of the coating machine component. The functional element may be made from a material having a greater mass density than the base body. An exemplary functional element may be a coating that is at least partially applied to the base body.
Abstract:
Coated articles may comprise one or more coating layers, including water resistant coatings. A method comprises applying such coating layers by dip, spray or flow coating. The methods can make coated containers, preferably comprising polyethylene terephthalate, from coated preforms. In some methods, the aqueous solutions, dispersions, or emulsions are substantially or completely free of VOCs.
Abstract:
This invention relates to a method for making high metallic luster, high impedance on flexible polymer based material, in which a lustrous layer is coated on the first surface of a flexible polymer based material by means of wet coating and a color protection layer is further coated on the lustrous layer or the second surface of the flexible polymer based material. In this manner, metal-like feeling and luster is enhanced by the lustrous layer such that the flexible polymer based material has low metal shielding effect or light-shield capability. In addition, the transmittance of light and electromagnetic wave in demanded range become better so that the interference on the quality of transmission and receiving can be avoided.
Abstract:
The invention relates to a process for the preparation of a composite material, said composite material comprising a substrate and a layer on the substrate, comprising a vapour-depositing step in which a compound comprising a triazine compound is deposited on the substrate at a pressure below 1000 Pa, whereby the layer is formed, wherein during the vapour-depositing step the temperature of the substrate lies between −15° C. and +125° C. The invention further relates to a composite material, obtainable by the process as disclosed.
Abstract:
In one embodiment, a flocked article is provided that includes an elastomeric film and a plurality of flock fibers on a flocked surface of the film. The flock fibers are embedded in the film.
Abstract:
Medical catheters are often coated, fully or partially. The present invention relates to systems and methods for coating some portion or all of a medical catheter or one or more of its components.
Abstract:
Highly water repellent coated articles may be made by applying to a substrate a coating having dispersed therein or sprinkled thereon partially or fully fluorinated polymer microparticles. The coating includes a partially fluorinated hexafluoropropylene copolymer binder in a nonfluorinated solvent that dissolves the binder and does not dissolve the microparticles. The coating is heated sufficiently to bond the microparticles to the binder but not so much as to cause the receding water contact angle for the coating to fall below 80°.
Abstract:
A method for coating surfaces with hydrophobin fusions at a pH of ≧4, and a surface having a coating which comprises at least one hydrophobin fusion.
Abstract:
The plant is intended for performing the plasma surface treatment of an alveolar sheet (10) of plastic material having a first and second outer face surface (12, 14) and an inner alveolar surface (16). The plant comprises means able to allow the simultaneous and independent treatment of each of said outer surfaces (12, 14) and inner surface (16) with a respective plasma (96, 98, 100) with which a process fluid is associated, said fluid being deposited on one of said surfaces (12, 14, 16).
Abstract:
A building material product and a method of making building material products, having increased resistance to granule rub off and staining. The building material product comprises a substrate having embedded granules and an acrylic latex coating positioned on the granules, where the polymer of the acrylic latex coating has the repeating structural unit [CH2—C(R1)(R2)], where R1 is hydrogen or C1-C8 alkyl; R2 is hydrogen, cyano or —COOR; and R is a linear or branched hydrocarbon containing 1-22 carbon atoms, with the proviso that R1 and R2 are both not hydrogen. The method includes applying this acrylic latex waterbased composition to a granule embedded substrate.