Abstract: A manufacturing process of a rear window for vehicles including the following steps: provision of a glass plate with an external side suitable for being directed towards the exterior of the vehicle and an internal side suitable for being directed towards the interior of the vehicle; application of a heater on the internal side of the glass plate, the heater having two bus bars that are electrically connected to a positive pole and to a negative pole of a battery of the vehicle, respectively, and a plurality of horizontal heating lines that connect the bus bars; and application of antenna traces on the internal side of the glass plate, wherein the antenna traces have strips of transparent nanowires made of conductive material. The application of the antenna traces is made by spray-coating on the internal side of the glass plate.

Abstract: A manufacturing process of a rear window for vehicles including the following steps: provision of a glass plate with an external side suitable for being directed towards the exterior of the vehicle and an internal side suitable for being directed towards the interior of the vehicle; application of a heater on the internal side of the glass plate, the heater having two bus bars that are electrically connected to a positive pole and to a negative pole of a battery of the vehicle, respectively, and a plurality of horizontal heating lines that connect the bus bars; and application of antenna traces on the internal side of the glass plate, wherein the antenna traces have strips of transparent nanowires made of conductive material. The application of the antenna traces is made by spray-coating on the internal side of the glass plate.

Abstract: The present disclosure relates to a sensor arrangement (1) for analyzing substances in a material, comprising a substrate (2), a first reception area (5) for receiving a first material, an electronic component sensor (3), a test area (4) that is in contact with the electronic component sensor (3), and a control device (10). The first reception area (5) and the test area (4) are arranged on the substrate (2). The control device (10) is configured for controlling the first reception area (5) and/or the test area (4) to move a portion of the first material from the first reception area (5) into the test area (4). Further, the present disclosure relates to a method for operating such a sensor arrangement (1).

Abstract: A manufacturing method of a microphone is disclosed, wherein a patterned upper electrode is obtained by a first deposition of conductive material in such a way to form pads of the patterned electrode, and pillars are formed by of successive depositions of rigid conductive material, in aligned position on the pads of the patterned electrode. The first deposition and the successive depositions are made by screen-printing, dispenser-printing or spray-coating of material in liquid or semifluid state.

Abstract: The present disclosure relates to a sensor arrangement (1) for analyzing substances in a material, comprising a substrate (2), a first reception area (5) for receiving a first material, an electronic component sensor (3), a test area (4) that is in contact with the electronic component sensor (3), and a control device (10). The first reception area (5) and the test area (4) are arranged on the substrate (2). The control device (10) is configured for controlling the first reception area (5) and/or the test area (4) to move a portion of the first material from the first reception area (5) into the test area (4). Further, the present disclosure relates to a method for operating such a sensor arrangement (1).

Abstract: The invention relates to a device (100; 200; 300; 400) for analyzing biological substances in a test solution, comprising a test substrate (101; 203; 303; 401) which is transparent at least in part, having a test region (107a, 108a, 109a, 110a; 211; 411) for receiving the test solution, a plurality of electrodes (111, 106; 201, 202; 301, 302; 402, 403) which are arranged on the test substrate (101; 203; 303; 401) and extend into the test region (107a, 108a, 109a, 110a; 211; 411), wherein in each case, at least one portion of the electrodes (111, 106; 201, 202; 301, 302; 402, 403) is made of a transparent material.

Abstract: The invention relates to a device (100; 200; 300; 400) for analysing biological substances in a test solution, comprising a test substrate (101; 203; 303; 401) which is transparent at least in part, having a test region (107a, 108a, 109a, 110a; 211; 411) for receiving the test solution, a plurality of electrodes (111, 106; 201, 202; 301, 302; 402, 403) which are arranged on the test substrate (101; 203; 303; 401) and extend into the test region (107a, 108a, 109a, 110a; 211; 411), wherein in each case, at least one portion of the electrodes (111, 106; 201, 202; 301, 302; 402, 403) is made of a transparent material.

Abstract: A method for security purposes is disclosed, in which a challenge signal is applied to a physical object and a response signal is received from the physical object. The response signal comprises a plurality of characteristic resonant optical mode or a characteristic of the response signal is determined based on a spatial resolution of at least two frequency components of the response signal that is affected by luminescence effect.

Abstract: A device for imaging the local distribution of at least one thermodynamic variable includes a radiation emitter capable of emitting electromagnetic radiation and a filter for filtering electromagnetic radiation. The emitter and the filter form an arrangement adapted for modifying the electromagnetic radiation emitted by the emitter in dependency of the local distribution of at least one thermodynamic variable at the location of the arrangement. The emitter further includes at least one electroluminescent layer and the filter is provided with at least one filter layer. The electroluminescent layer and the filter layer are integrated within a cohesive sequence of layers. The device is particularly suitable for infrared camera systems.

Abstract: A device for imaging the local distribution of at least one thermodynamic variable includes a radiation emitter capable of emitting electromagnetic radiation and a filter for filtering electromagnetic radiation. The emitter and the filter form an arrangement adapted for modifying the electromagnetic radiation emitted by the emitter in dependency of the local distribution of at least one thermodynamic variable at the location of the arrangement. The emitter further includes at least one electroluminescent layer and the filter is provided with at least one filter layer. The electroluminescent layer and the filter layer are integrated within a cohesive sequence of layers. The device is particularly suitable for infrared camera systems.