Abstract: A packaging structure including at least one hermetically sealed cavity in which at least one microelectronic device is arranged, the cavity being formed between a substrate and at least one cap layer through which several release holes are formed. Several separated portions of metallic material are provided such that each of the separated portions of metallic material is arranged on the cap layer above and around one of the release holes and forms an individual and hermetical plug of said one of the release holes. At least one diffusion barrier layer including at least one non-metallic material is arranged on the cap layer and forms a diffusion barrier against an atmosphere outside the cavity at least around the release holes. Parts of the diffusion barrier layer are not covered by the portions of metallic material.

Abstract: A component includes a carrier and a functional structure on the carrier. A thin-film cover covers the functional structure and is used as a mounting base for a circuit part, which is arranged over the thin-film cover. The circuit part is connected to the functional structure by means of a lead.

Abstract: A microacoustic component includes a functional acoustic region, an inner marginal region and an outer marginal region. The cover covers the functional acoustic region and has a thin film and a bearing surface. The inner marginal region is acoustically coupled to the functional acoustic region and the bearing surface bears directly at least on a part of the inner marginal region.

Abstract: An arrangement and a production method for the arrangement with at least one MEMS device, which comprises a package that closely encloses the MEMS device and seals it from ambient influences. The package comprises as sealing a PFPE layer of a perfluoropolyether polymerized with the aid of functional groups.

Abstract: A method for packaging a microelectronic device in an hermetically sealed cavity and managing an atmosphere of the cavity with a dedicated hole, including making said cavity between a support and a cap layer such that a sacrificial material and the device are arranged in the cavity; removing the sacrificial material through at least one release hole, and hermetically sealing the release hole; making a portion of wettable material on the cap layer, around a blind hole or a part of said outside surface corresponding to a location of said dedicated hole; making a portion of fuse material on the portion of wettable material; making the dedicated hole by etching the cap layer; and reflowing the portion of fuse material with a controlled atmosphere, forming a bump of fuse material which hermetically plugs said dedicated hole.

Abstract: A component suitable for miniaturization and comprising acoustically decoupled functional structures is specified. The component comprises a first functional structure, a first thin-film cover, which covers the first functional structure, and a second functional structure above the thin-film cover. The thin-film cover does not touch the first functional structure.

Abstract: The invention specifies an electronic component which has a first electrode (10), a second electrode (20), an active region (30), which is electrically coupled to the first electrode (10) and to the second electrode (20), and a housing (100), wherein the housing (100) contains carbon layers which are monoatomic at least in subregions.

Abstract: The present invention concerns a microelectronic package (1) comprising a microelectronic structure (2) having at least a first opening (3) and defining a first cavity (4), a capping layer (9) having at least a second opening (10) and defining a second cavity (11) which is connected to the first cavity (4), wherein the capping layer (9) is arranged over the microelectronic structure (2) such that the second opening (10) is arranged over the first opening (3), and a sealing layer (13) covering the second opening (10), thereby sealing the first cavity (4) and the second cavity (11). Moreover, the present invention concerns a method of manufacturing the microelectronic package (1).

Abstract: The invention relates to an electronic component having a layer sequence, which comprises at least a first electrode (10), a second electrode (20) and an active region (30) and contains monoatomic carbon layers at least in sub-regions.

Abstract: A packaging structure including at least one hermetically sealed cavity in which at least one microelectronic device is arranged, the cavity being formed between a substrate and at least one cap layer through which several release holes are formed; several separated portions of metallic material such that each of the separated portions of metallic material is arranged on the cap layer above and around one of the release holes and forms an individual and hermetical plug of said one of the release holes; at least one diffusion barrier layer comprising at least one non-metallic material, arranged on the cap layer and forming a diffusion barrier against an atmosphere outside the cavity at least around the release holes; and wherein parts of the diffusion barrier layer are not covered by the portions of metallic material.

Abstract: A method for packaging a microelectronic device in an hermetically sealed cavity and managing an atmosphere of the cavity with a dedicated hole, including making said cavity between a support and a cap layer such that a sacrificial material and the device are arranged in the cavity; removing the sacrificial material through at least one release hole, and hermetically sealing the release hole; making a portion of wettable material on the cap layer, around a blind hole or a part of said outside surface corresponding to a location of said dedicated hole; making a portion of fuse material on the portion of wettable material; making the dedicated hole by etching the cap layer; and reflowing the portion of fuse material with a controlled atmosphere, forming a bump of fuse material which hermetically plugs said dedicated hole.

Abstract: A microacoustic component includes a functional acoustic region, an inner marginal region and an outer marginal region. The cover covers the functional acoustic region and has a thin film and a bearing surface. The inner marginal region is acoustically coupled to the functional acoustic region and the bearing surface bears directly at least on a part of the inner marginal region.

Abstract: A component includes a carrier and a functional structure on the carrier. A thin-film cover covers the functional structure and is used as a mounting base for a circuit part, which is arranged over the thin-film cover. The circuit part is connected to the functional structure by means of a lead.

Abstract: A component suitable for miniaturization and comprising acoustically decoupled functional structures is specified. The component comprises a first functional structure, a first thin-film cover, which covers the first functional structure, and a second functional structure above the thin-film cover. The thin-film cover does not touch the first functional structure.

Abstract: Method of hermetically sealing a hole with a fuse material, comprising the following steps: applying a portion of wettable material onto a surface such that it completely surrounds the hole made through said surface and is located outside the hole, or completely surrounds a first part of said surface corresponding to a location of the hole; applying a portion of fuse material on the portion of wettable material and on a second part of said surface located around the portion of wettable material; reflowing the portion of fuse material to form a bump of fuse material which has a shape corresponding to a part of a sphere, which is fastened only to the portion of wettable material and which hermetically plugs the hole; wherein the hole is made in said surface before reflowing the portion of fuse material.

Abstract: The present invention relates to a method for producing an MEMS device (1) operating with acoustic waves. The method comprises the steps of producing an MEMS component (2) operating with acoustic waves on a substrate (3), encapsulating the component (2) with a housing layer (10), wherein the housing layer (10) is transmissive to electromagnetic radiation (14) in a wavelength range, and trimming the component (2) by irradiating the component (2) with electromagnetic radiation (14) having a wavelength lying in the wavelength range in which the housing layer (10) is transmissive to the electromagnetic radiation (14). Furthermore, the invention relates to an MEMS device (1) comprising a housing layer (10) transmissive to electromagnetic radiation (14) in the wavelength range.

Abstract: A microacoustic component includes an active layer and an electrode. The electrode includes a first metal layer facing the active layer, a second metal layer facing away from the active layer, and a third layer arranged between the first metal layer and the second metal layer. The third layer serves as a diffusion barrier.

Abstract: Method of hermetically sealing a hole with a fuse material, comprising the following steps: applying a portion of wettable material onto a surface such that it completely surrounds the hole made through said surface and is located outside the hole, or completely surrounds a first part of said surface corresponding to a location of the hole; applying a portion of fuse material on the portion of wettable material and on a second part of said surface located around the portion of wettable material; reflowing the portion of fuse material to form a bump of fuse material which has a shape corresponding to a part of a sphere, which is fastened only to the portion of wettable material and which hermetically plugs the hole; wherein the hole is made in said surface before reflowing the portion of fuse material.

Abstract: The microacoustic component has a substrate that has at least one layer (composed of a dielectric or piezoelectric material, and a metallic strip structure. The layer is composed of a dielectric or piezoelectric material and/or the metallic strip structure have/has been produced or can be produced by the atomic layer deposition method.

Abstract: The invention specifies an electronic component which has a first electrode (10), a second electrode (20), an active region (30), which is electrically coupled to the first electrode (10) and to the second electrode (20), and a housing (100), wherein the housing (100) contains carbon layers which are monoatomic at least in subregions.