Abstract:
An optoelectronic component may include a carrier, above which a first electrode is formed. An optically functional layer structure is formed above the first electrode. A second electrode is formed above the optically functional layer structure, the second electrode extending areally over at least one part of the side of the optically functional layer structure which faces away from the carrier. An encapsulation is formed above the first and/or second electrode, the encapsulation encapsulating the optically functional layer structure. An electrically conductive contact structure is arranged in a cutout of the encapsulation on the first and/or second electrode and extends through the encapsulation, for electrically contacting the first and/or second electrode. The contact structure and the encapsulation are formed such that in interaction they encapsulate the first and/or second electrode.
Abstract:
Various embodiments may relate to a method for working an apparatus having at least one electrical layer structure. The electrical layer structure includes a dielectric layer in physical contact with an electrically conductive layer and the electrical layer structure has a first electrical conductivity. The method may include forming an electrical connection to the dielectric layer of the electrical layer structure, and forming an electrical voltage profile at the electrical connection in such a way that a second electrical conductivity is formed; wherein the second electrical conductivity is greater than the first electrical conductivity. The electrical layer structure has the second electrical conductivity after the reduction of the electrical voltage profile.
Abstract:
An optoelectronic component is provided with a carrier; a zinc oxide layer arranged on the carrier and having the first and second regions, wherein the first region is a first electrode structure which is doped with aluminum so that the first region is transparent and electrically conductive; an organic optically functional layer structure arranged at least partially over the first electrode structure; and a second electrode structure arranged at least partially over the organic optically functional layer structure. The first and second electrode structures electrically contact the organic optically functional layer structure. The zinc oxide layer has a lower doping in the second region than the first electrode structure. The zinc oxide layer is configured in the second region as a varistor layer structure, which is arranged between the first and second electrode structures and contacts the two electrode structures. The varistor layer structure adjoins the optically transparent first region.
Abstract:
A method for producing a light-emitting device and light-emitting device are disclosed. In an embodiment the method includes providing a carrier layer comprising a substrate, applying a first electrode layer, applying a layer sequence for generating light, applying a second electrode layer and structuring at least one layer for varying an optical thickness in a first region of the light-emitting device differently from the layer in a second region of the light-emitting device, wherein the second region is laterally arranged relative to the first region.
Abstract:
Various embodiments may relate to an electronic structure, including at least one organic layer, at least one metal growth layer grown onto the organic layer, and at least one metal layer grown on the metal growth layer. The at least one metal growth layer contains germanium. Various embodiments further relate to a method for producing the electronic structure.
Abstract:
In at least one embodiment, an organic optoelectronic component, which is preferably an organic light emitting diode, includes a first electrode layer, a second electrode layer and an organic layer sequence situated between the electrode layers. Furthermore, the component includes a light-transmissive current confinement layer, which is fitted over the whole area between the first electrode layer and the organic layer sequence, such that the organic layer sequence is spaced apart from the first electrode layer. The current confinement layer is produced continuously from a common starting material and is structured by treatment and/or by action of temperature into at least one conductive region having a high electrical conductivity and into at least one insulating region having a low electrical conductivity. These electrical conductivities differ from one another by at least a factor of 10.
Abstract:
A method for producing an optoelectronic arrangement and an optoelectronic arrangement. In an embodiment the method includes providing a connection carrier having a contact surface and two connection points, which are electrically conductively connected with the contact surface, providing an optoelectronic device having a connection surface, introducing an electrically conductive bonding material between the contact surface of the connection carrier and the connection surface of the optoelectronic device and heating the contact surface of the connection carrier by energizing the contact surface via the two connection points, wherein the electrically conductive bonding material is heated by the contact surface such that the bonding material melts or hardens.
Abstract:
A light-emitting organic component is specified, comprising—an organic active region (3), in which light is generated during the operation of the component, and—an uneven light exit surface (6), through which at least part of the light generated in the organic active region (3) emerges from the component, wherein—a multiplicity of optical structures (7) which optically influence the light passing through and/or impinging on them are arranged at the uneven light exit surface (6).
Abstract:
A light-emitting organic component is specified, comprising—an organic active region (3), in which light is generated during the operation of the component, and—an uneven light exit surface (6), through which at least part of the light generated in the organic active region (3) emerges from the component, wherein—a multiplicity of optical structures (7) which optically influence the light passing through and/or impinging on them are arranged at the uneven light exit surface (6).
Abstract:
An organic optoelectronic component is disclosed. In an embodiment, an organic optoelectronic component includes an organic layer sequence having an active layer for emitting or absorbing electromagnetic radiation, a thin-film encapsulation on the organic layer sequence, an absorption layer on the organic layer sequence, the absorption layer configured to absorb and store a substance which is harmful to the organic layer sequence and a transport layer directly adjacent to the absorption layer, the transport layer configured to transport the harmful substance, wherein the transport layer has a greater diffusion coefficient and/or a higher transmission rate for the harmful substance than the absorption layer, and wherein the absorption layer has a higher storage capacity for the harmful substance than the transport layer so that the harmful substance, upon contact with the transport layer, is distributed within the transport layer and is subsequently absorbed by the absorption layer.