Abstract: The invention relates to a process for the production of decorative coatings, comprising the following steps: A) providing a substrate to be coated and a backing film coated on one side with an uncured or only partially cured coating of a coating composition curable by means of high-energy radiation, B) forming zones on the backing film which are opaque to high-energy radiation and correspond to the negative image of a desired pattern or decoration, C) applying the coated side of the backing film having the uncured or only partially cured coating of a coating composition curable by means of high-energy radiation with the coated side thereof onto a substrate surface, D) curing the coating applied by the backing film by irradiation with high-energy radiation through the backing film, E) removing the backing film from the coating which remains on the substrate, and F) removing the un-irradiated and thus uncured parts of the coating remaining on the substrate to obtain the desired pattern or decoration.

Abstract: A process for the production of backing foils provided on one side with an uncured or at most partially cured transparent coating and, on the side of the coating remote from the foil, with an image, the process comprising the successive steps: a) providing a backing foil provided on one side with an uncured or at most partially cured transparent coating of a curable coating composition and b) providing the side of the coating remote from the foil with an image, in particular by printing.

Abstract: A multi-layer coating for coating a substrate surface, comprising at least one color-imparting layer, which contains three-dimensional photonic crystals as effect-imparting interference pigments.

Abstract: The invention relates to an ink jet ink composition containing monodisperse polymer particles to provide an opaque ink with improved color brilliancy, ink jet ink sets based on this composition, and a methods for ink jet printing with the ink and/or ink jet sets.

Abstract: The invention relates to a process for multi-layer coating of substrates, in particular vehicles and vehicle parts, by applying two or more coating layers and curing of the applied coatings, wherein at least one of the coating layers is produced from a coating composition which comprises a binder system with free-radically polymerizable olefinic double bonds and with hydrolysable alkoxysilane groups, wherein the resin solids content of the coating composition exhibits an equivalent weight of C?C double bonds of 200-2000, preferably of 300-1500, and a content of silicon bound in alkoxysilane groups of 1-10 wt-%, preferably of 1-7 wt-%, especially preferably of 2-6 wt-%, and wherein curing of the coating layer, of which there is at least one, proceeds by free-radical polymerization of the C?C double bonds under the action of thermal energy and by the formation of siloxane bridges under the action of moisture.

Abstract: A process for the production of coatings on substrates comprising the successive steps: a) providing a substrate to be coated and of a backing foil provided on one side with an uncured or at least only partially cured coating of a curable coating composition, b) applying the coated side of the backing foil provided with the uncured or at least only partially cured coating onto the substrate, c) curing the coating applied in said manner and d) removing the backing foil from the coating which remains on the substrate, wherein curing of the coating proceeds prior to and/or after removal of the backing foil and wherein the uncured or at least only partially cured coating of the curable coating composition is or has been applied onto one side of the backing foil by screen printing.

Abstract: A multi-layer coating for coating a substrate surface, comprising at least one color-imparting layer, which contains three-dimensional photonic crystals as effect-imparting interference pigments.

Abstract: A process for the production of a coating layer from a thermally curable coating composition on a substrate, comprising the successive steps:

Abstract: An electrodeposition coating process consisting of the successive process steps: 1) electrodeposition of a coating layer of an electrodeposition coating agent that contains a thermally curable binder system onto the surface of an electrically conductive substrate and 2) thermal curing of the electrodeposited coating layer by irradiation with near infrared radiation.

Abstract: An electrodeposition coating process consisting of the successive process steps:

Abstract: The invention is directed to a process for coating substrates by applying at least one coating composition to an optionally precoated substrate and then curing the coating layer(s) thus obtained, wherein at least one of the coating layers is produced from a coating composition which contains a binder system having olefinic double bonds capable of free-radical polymerization and having reactive functional groups within the meaning of addition and/or condensation reactions, the resin solids of the coating composition having a C═C-equivalent weight from 300 to 10,000, preferably from 300 to 8,000, and curing of this (these) coating layer(s) is carried out by irradiation with NIR radiation in the wave length range 760-1500 nm.

Abstract: The invention is directed to a process for coating substrates by applying at least one coating composition to an optionally precoated substrate and then curing the coating layer(s) thus obtained, wherein at least one of the coating layers is produced from a coating composition which contains a binder system having olefinic double bonds capable of free-radical polymerization and having reactive functional groups within the meaning of addition and/or condensation reactions, the resin solids of the coating composition having a C═C-equivalent weight from 300 to 10,000, preferably from 300 to 8,000, and curing of this (these) coating layer(s) is carried out by irradiation with NIR radiation in the wave length range 760-1500 nm.

Abstract: A process for the production of a multi-layer coating, wherein a primer layer which is electrically conductive in the at least partially cured state is applied by electrodeposition from an electrodeposition coating agent (I) to an electrically conductive three-dimensional object, at least partially cured exclusively by the action of near infra-red radiation substantially only on the surfaces of the object exposed to the radiation, and an additional coating layer is applied by electrodeposition from an electrodeposition coating agent (II) which is different from electrodeposition coating agent (I), and then this additional coating layer as well as completely uncured or incompletely cured area parts of the primer layer produced from electrodeposition coating agent (I) are cured.

Abstract: A process for the production of a multi-layer coating, wherein a primer layer which is electrically conductive in the at least partially cured state is applied by electrodeposition from an electrodeposition coating agent (I) to an electrically conductive three-dimensional object, at least partially cured exclusively by the action of near infra-red radiation substantially only on the surfaces of the object exposed to the radiation, and an additional coating layer is applied by electrodeposition from an electrodeposition coating agent (II) which is different from electrodeposition coating agent (I), and then this additional coating layer as well as completely uncured or incompletely cured area parts of the primer layer produced from electrodeposition coating agent (I) are cured.

Abstract: The process of this invention applies at least one coating composition to an optionally precoated substrate and then cures the thus obtained coating layer(s), whereby at least one of the coating layers is prepared from a coating composition that can be chemically cross-linked solely by radical polymerization of olefinic double bonds, the resin solid of the composition has a C═C equivalent weight from 100 to 10,000, preferably from 100 to 5,000, and the curing of the coating layer(s) is carried out with NIR radiation in the wave length range from 760-1500 nm.