Abstract: The invention relates to a method enabling to apply cheap manufacturing techniques for producing reliable and robust organic thin film device (EL) comprising the steps of providing (P) a transparent substrate (1) at least partly covered with a first layer stack comprising at least one transparent layer (2), preferably an electrically conductive layer, and a pattern of first and second opaque conductive areas (31, 32) deposited on top of the transparent layer (2), depositing (D) a photoresist layer (4) made of an electrically insulating photoresist resist material on top of the first layer stack at least fully covering the second opaque conductive areas (32), illuminating (IL) the photoresist layer (4) through the transparent substrate (1) with light (5) of a suitable wavelength to make the photoresist material soluble in the areas (43) of the photoresist layer (4) having no opaque conductive areas (31, 32) underneath, removing (R) the soluble areas (43) of the photoresist layer (4), heating (B) the areas (42)

Abstract: The present invention relates to a light emitting device comprising: a transparent substrate (11); partially transparent an anode layer (12) or layer assembly arranged on said substrate (11); a light emitting layer (13) arranged on said anode layer (12); and a transparent cathode layer (14) arranged on said light emitting layer; (13) wherein said anode layer (12) or layer assembly comprises a first surface (15) facing said substrate (11) and a second surface (16) facing said light emitting layer (13) and is positioned opposite to said first surface (15); said first surface (15) comprises a transparent conductive material; said second surface (16) comprises first (17) and second domains (18); said first domains (17) are conductive and non-transparent; said second domains (18) are transparent and electrically isolating; and said first domains (17) are in direct contact with said light emitting layer (13) and are arranged to allow electrical contact between said first surface (15) and said light emitting layer (

Abstract: An opto-electrical device is provided that comprises a cover (10), a barrier structure (20), an opto-electrical structure (30) and a plurality of transverse electrical conductors (40).

Abstract: The present invention relates to an electro-optical device provided with an electrode (10). The electrode comprising an electrically conductive structure extending in a plane. The structure comprises a grid of elongated elements (12) with length L and a width dimension D in said plane. The electrically conductive structure further comprises one or more contactfields (14) having an inscribed circle with a radius of at least 2D and a circumscribed circle with a radius of at most three times L. The area occupied by the contactfields (14) is at most 20% of the area occupied by the grid of elongated elements (12).

Abstract: An active matrix display device comprises an array of display pixels, with each pixel comprising an EL display element, a light-dependent device for detecting the brightness of the display element and a drive transistor circuit for driving a current through the display element. The drive transistor is controlled in response to the light-dependent device output so that ageing compensation can be implemented. The light-dependent device is located laterally of the area of light emitting material of the EL display element. In this way, the light-dependent device does not cause step coverage problems and can be integrated into the pixel layout without affecting the pixel aperture. Furthermore, the light dependent device can extend alongside the full length of the area of light emitting material so that it receives light input from a large part of the display element area.

Abstract: Disclosed is an OLED device including an organic layer disposed between an anode and a cathode, and a mirror layer on the anode or cathode. The organic layer is structured into electroluminescent zones and inactive zones, while the mirror layer is structured into nontransparent zones and transparent zones. Via an at least partial alignment of these structures, the OLED device can be made transparent for environmental light and simultaneously emissive in a dominant direction.

Abstract: An apparatus is described for coating a flexible substrate with at least a first organic layer and a first inorganic layer. The apparatus comprises a first and a second chamber and an atmosphere decoupling slot between the first and the second chamber. A printing facility is arranged in the first chamber, for printing the flexible substrate with a mixture comprising at least one precursor for a polymer, oligomer or a polymer network and a polymerization initiator. A curing facility is arranged in the first chamber, for curing the deposited mixture, therewith forming the at least first organic layer. A vapor deposition facility is arranged in the second chamber, for depositing the at least first inorganic layer at the substrate provided with the at least first organic layer. The apparatus comprises a facility for guiding the flexible substrate along the printing facility, along the curing facility and via the atmosphere decoupling slot along the vapor deposition facility.

Abstract: A method of manufacturing an opto-electric device is disclosed, comprising the steps of providing a substrate (10), overlying a first main side of the substrate with an electrically interconnected open shunting structure (20), embedding the electrically interconnected open shunting structure in a transparent layer (30), removing the substrate from the embedded electrically interconnected open shunting structure, depositing a functional layer structure (40) over a free surface (31) formed after removal of the substrate.

Abstract: The invention relates to an illumination device (1000) comprising an at least partially transparent solar cell (200) that is arranged at the back side of an at least partially transparent light source (100). Preferably, the light source (100) is an OLED that is structured into a plurality of electroluminescent zones (131) and inactive zones (132). The electroluminescent zones are preferably aligned with reflective zones (311) of a mirror layer (310) that is disposed between the light source (100) and the solar cell (200).

Abstract: The invention relates to a sealed thin-film device (10, 12, 14), to a method of repairing a sealing layer (20) applied to a thin-film device (30) to produce the sealed thin-film device, to a system (200) for repairing the sealing layer applied to the thin-film device to generate the sealed thin-film device and to a computer program product. The sealed thin-film device comprises a thin-film device and a sealing layer applied on the thin-film device for protecting the thin-film device from environmental influence. The sealed thin-film device further comprises locally applied mending material (40; 42, 44) for sealing a local breach (50) in the sealing layer. An effect of this sealed thin-film device is that the operational life-time of the sealed thin-film device is improved. Furthermore, the production yield of the production of sealed thin-film devices is improved.

Abstract: A method is described for manufacturing an optoelectric device comprising the steps of providing (S1) a layer (10) of an optoelectric active material between a first electrode (22) and a second electrode (32), providing (S2) a patterned electrically insulating layer structure (60) at at least one of said electrodes (32), the patterned electrically insulating layer structure (60) having openings (62), providing (S3) an electrolyte (70) in said openings (62), depositing (S3) a metallic layer in said openings from the electrolyte by electroplating, characterized in that the electrolyte (70) is formed by an ionic liquid.

Abstract: An electro-optic device (501) is provided comprising a substrate (570) that supports a first and a second electrode (515, 536), a functional structure (530) comprising at least one functional layer (532, 534), that is electrically coupled to the electrodes, an etched metal structure (512) being electrically coupled to at least one of the electrodes (515).

Abstract: The present invention relates to a daylight deflection system including an arrangement of louvers (5) which are aligned and formed to block daylight impinging from an outer side (3) at higher angles of incidence with respect to a horizontal direction (19), to deflect daylight impinging from the outer side (3) at lower angles of incidence with respect to the horizontal direction (19) towards an indoor ceiling, and to allow visual transmission in at least the horizontal direction (19). In this deflection system OLED's (8) or optical light guides (16) coupled to LED's (17) are attached to or integrated in the louvers (5), said OLED's (8) or light guides (16) being microstructured at a surface to deflect the daylight toward the indoor sealing. With this daylight deflection system indoor lighting combining daylight and artificial light is achieved in a compact manner.

Abstract: The invention relates to an instrument (100) that can at least partially be inserted into an internal cavity (2) of an object (1), particularly a catheter or an endoscope. The instrument (100) comprises an optical system (OS) for collecting light coming from external objects through a viewing corridor (VC). The optical system comprises an OLED (110) for illuminating said external objects which is disposed in the viewing corridor (VC). In a particular embodiment, the OLED (110) may at least partially be transparent. By arranging the OLED (110) in the light corridor, an optimal illumination can be achieved together with a compact design of the whole instrument (100).

Abstract: An electronic device comprises a functional stack (10) and a cover (50) coupled thereto by an insulating adhesive layer (30). The functional stack (10) comprises a first transparent and electrically conductive layer (22), a second electrically conductive layer (24) and a functional structure (26), comprising at least one layer, sandwiched between said first and second conductive layer. The cover (50) includes a substrate (52) and at least a first conductive structure (66, 68) that is arranged in a first plane between the adhesive layer (28) and the substrate (52). First and second transverse electrical conductors (32, 34) transverse to the first plane (61) electrically interconnect the first and the second electrically conductive layer (22, 24) with the first and the second conductive structure (66, 68) in the first plane (61).

Abstract: An electric transport component (10; 110; 310; 60) comprises a substrate (20; 120) provided with a barrier structure with a first inorganic layer (16; 116; 66), an organic decoupling layer (12; 112; 62) and a second inorganic layer (18; 118; 68), wherein the organic decoupling layer is sandwiched between the first and the second inorganic layer, and at least one electrically conductive structure (14; 114; 314; 414; 414-1, 414-2; 514; 614-1, 614-2; 64) distributed in a plane defined by the organic decoupling layer, and that is accommodated in at least one trench (13; 113) in the organic decoupling layer. A method of manufacturing an electric transport component comprises the steps of a) providing a first inorganic layer b) providing a first organic decoupling layer, c) forming at least one trench in the organic decoupling layer, d) depositing an electrically conductive material in the at least one trench, e) providing a second inorganic layer.

Abstract: Light device comprising a substrate, at least one photo-organic layer, at least two electrode layers electrically separated by said at least one photo-organic layer, and at least one encapsulation layer, wherein said at least one photo-organic layer is positioned between said substrate and said at least one encapsulating layer, and wherein multiple openings are provided that extend through the light device to allow fluids and or heat to pass through, said openings being spaced apart from said at least one photo-organic layer.

Abstract: This invention relates to a photovoltaic system for electronic appliance. The photovoltaic system comprises an energy concentrator having an outer layer (201) and an inner layer (202), the outer layer (201) adapted to gather incoming electromagnetic radiation into the energy concentrator (101) and the inner layer (202) being adapted for reflecting the incoming electromagnetic radiation such that the incoming electromagnetic radiation becomes concentrated within the energy concentrator (101). The system further comprises a solar cell (102) optically coupled to the energy concentrator (101), such that light concentrated in the energy concentrator is directed to the solar cell, the solar cell adapted to act as a power source for the electronic appliance (103).

Abstract: It is presented a method for producing a lighting device (1) comprising an Organic Light Emitting (abbreviated OLED) device (1) and a transparent image (I), the OLED device (2) comprising a first portion (P1) with reduced light output capacity. A portion of the transparent image, having a first tone (T1), is at least partially overlapping the first portion (P1) of the OLED device (2). It is also presented a lighting device (1).

Abstract: A display panel includes pixels with a light emissive layer and an electrode layer deposited on the light emissive layer. A first pixel is determined by a first barrier structure and a second pixel, adjacent to the first pixel, is determined by a second barrier structure. The first and second barrier structures are separated by an electrically conductive structure in electrical contact with the electrode layer. Accordingly, space is available between the barrier structures for electrical shunting of the electrode layer.