Abstract: The luminous chain includes a plurality of luminous modules, wherein at least two of the luminous modules include at least one set including at least one light source and one driver circuit for driving the at least one light source, and the driver circuits of one set of the respective luminous modules are electrically connected in parallel with one another, and the light sources of the one set of the respective luminous modules are electrically connected in series with one another, and the driver outputs of the driver circuits are combined at a node for jointly supplying current to all of the light sources of the one set.

Abstract: A light-emitting system is provided, in which a flexible printed circuit (2) is connected to a plug connection (4) which connects the flexible printed circuit (2) either to a power source or to a second flexible printed circuit (20). The connection of the flexible printed circuit to a second printed circuit or to a power source can be made easily, and can be produced in large quantities.

Abstract: A mounting panel arrangement having a plurality of mounting panels for optoelectronic components. Two adjacent mounting panels (1, 2) are connected to one another, in a mechanically stable manner, a connection body (3). Each of the two mounting panels has a connection area (110, 210), each of which is associated with an attachment section (31, 32) of the connection body. For each connection area, a plug connection is formed between the connection area and the associated attachment section.

Abstract: An electronic device having an electrical circuit carrier and a body is specified, in which at least one riveted connection is formed between the electrical circuit carrier and the body. In the case of such a device, the electrical circuit carrier can be mechanically incorporated in a stable manner and with little technical complexity. An electrical circuit carrier having at least one rivet is also specified.

Abstract: An illumination device comprising a connection carrier (1), at least one light-emitting diode (10), an electrically insulating layer (3) and a fixing device (4) is specified. The connection carrier (1) has a first main area (1a) and a second main area (1b) remote from the first main area. The light-emitting diode (10) is fixed on the first main area (1a) of the connection carrier (1). The electrically insulating layer (3) is fitted to the second main area (1b) of the connection carrier (1) and projects laterally beyond the second main area (1b) of the connection carrier (1). The fixing device (4) is suitable for fixing the illumination device to a mounting area (2a) of a carrier (2), wherein the electrically insulating layer (3) is arranged between the second main area (1b) of the connection carrier (1) and the mounting area (2a) of the carrier (2). Furthermore, the fixing device (4) presses the connection carrier (1) against the mounting area (2a).

Abstract: A method for producing a light emitting diode arrangement. A plurality of LED modules (110, 120, 130) are provided, which in each case comprise at least one radiation emitting semiconductor component (1000) on a carrier body (1300). At least one separately fabricated connection carrier (200) is provided. The LED modules are arranged in such a way that they are adjacent to one another in pairs. A mechanically stable and electrically conductive connection between the carrier bodies of two LED modules is produced by means of the connection carrier. Furthermore, a light emitting diode arrangement is disclosed.

Abstract: A light-emitting diode system (1) comprising at least one light-emitting diode component (2), in which a light-emitting diode chip is arranged in a light-emitting diode housing (21) on a heat sink (22) which can be thermally connected at the rear side (25) of the light-emitting diode housing (21). A carrier plate (3) having a front side (34) and a rear side (31) and a hole for receiving the light-emitting diode component (2) is provided. The light-emitting diode component (2) projects into the hole from the rear side (31) of the carrier plate (3). An electrically insulating thermal connection layer (5) is applied at the rear side (31) of the carrier plate (3), said thermal connection layer being thermally conductively connected to the heat sink (22). A method for producing a light-emitting diode system is also described.

Abstract: Deformable illumination module with a plurality of circuit boards that have at least one optical emitter arranged thereon and that are connected into forming a chain by way of two electrical power supply wires. The electrical power supply wires run without interruption across all circuit boards of the chain creating a parallel connection of the circuit boards.

Abstract: The present invention relates to a device for controlling room temperature and room lighting wherein the device comprises a temperature control system for the receipt and/or delivery of heat to the surroundings and a lighting system wherein the lighting system is thermally coupled to sections of the temperature control system.

Abstract: A light module (1) comprising a plurality of radiation-emitting semiconductor components (2), each of which is assigned an emission angle (2?), comprising at least one component having an optical element (9) that enlarges the emission angle (2?), and comprising a common optical device for focusing the radiation. The radiation is intermixed by means of the optical element (9). Also disclosed is a light multiple module (16), which has at least two light modules (1).

Abstract: A passive radiation optical system includes a one-piece module having a plurality of individual optical components wherein the one-piece module is radiation-permeable or reflective. The optical components are connected to one another via predetermined breaking points for forming a radiation optical system module. In addition, the one-piece module can be separated to form optical components that include one or more individual optical components. The one-piece module is particularly for use with light emitting diodes. The passive radiation optical system module is suitable for mass production, and because of its modular principle, it enables flexible adaptation to the shape and size of the desired lighting device, such as lighted advertising or safety lighting.

Abstract: A passive radiation optical system module (1), particularly for use with light-emitting diodes (23), is disclosed that has a plurality of individual optical components (2), which are radiation-permeable or reflective, which are connected to one another, preferably via desired breaking points (3), for forming the radiation optical system module (1), and which can be separated from one another, forming optical components (11) that include one or more individual optical components (2). The passive radiation optical system module (1) is suitable for mass production, and because of its modular principle, it enables flexible adaptation to the shape and size of the desired lighting device, such as lighted advertising or safety lighting.