Abstract: A machine for the production of knitted goods includes a plurality of stitch-forming elements, at least one stitch-forming location, an associated spinning device at the at least one stitch-forming location, at which a sliver (FB) or a yarn is produced from a roving yarn (VG) and the sliver (FB) or yarn is fed to the stitch-forming elements. The spinning device has separate drive devices, which can be actuated in a manner that enables the spinning device to produce a sliver (FB) or a yarn of variable thickness from roving yarn (VG) and which can be fed to the stitch-forming elements.

Abstract: A machine for the production of knitted goods includes a plurality of stitch-forming elements, at least one stitch-forming location, an associated spinning device at the at least one stitch-forming location, at which a sliver (FB) or a yarn is produced from a roving yarn (VG) and the sliver (FB) or yarn is fed to the stitch-forming elements. The spinning device has separate drive devices, which can be actuated in a manner that enables the spinning device to produce a sliver (FB) or a yarn of variable thickness from roving yarn (VG) and which can be fed to the stitch-forming elements.

Abstract: Various embodiments relate to an optoelectronic component, including a carrier element, on which at least one optoelectronic semiconductor chip is arranged, and a cover, which is mounted on the carrier element in a region extending circumferentially around the semiconductor chip and together with the carrier element forms a sealed cavity in which the at least one optoelectronic semiconductor chip is arranged in an inert gas.

Abstract: A lighting module may include a lighting band with a band-shaped flexible substrate, wherein at least one semiconductor light source is applied to a top side of the substrate, wherein the lighting module is faced with a protective layer such that at least one emission area of the at least one semiconductor light source is exposed thereby.

Abstract: Various embodiments relate to an optoelectronic component, including a carrier element, on which at least one optoelectronic semiconductor chip is arranged, and a cover, which is mounted on the carrier element in a region extending circumferentially around the semiconductor chip and together with the carrier element forms a sealed cavity in which the at least one optoelectronic semiconductor chip is arranged in an inert gas.

Abstract: The protective sheath has a basis for attaching the LED band and an at least partially light-transmissive covering attachable thereto, wherein the basis and the covering form an accommodation space for the LED band in the attached state.

Abstract: A lighting module may include a lighting band with a band-shaped flexible substrate, wherein at least one semiconductor light source is applied to a top side of the substrate, wherein the lighting module is faced with a protective layer such that at least one emission area of the at least one semiconductor light source is exposed thereby.

Abstract: An illumination device may include a multilayer system having at least two functional layers, a supporting functional layer having a sheet-like substrate on which a photovoltaic functional layer with at least one solar cell is applied; at least one energy storage device for storing energy generated by the at least one solar cell; at least one light source that can be operated by means of the energy stored in the energy storage device; and at least one brightness sensor. The illumination device may be configured to activate or deactivate the at least one light source on the basis of a measured value sensed by the at least one brightness sensor.

Abstract: The protective sheath has a basis for attaching the LED band and an at least partially light-transmissive covering attachable thereto, wherein the basis and the covering form an accommodation space for the LED band in the attached state.

Abstract: A method for producing a radiation-emitting device comprising a plurality of radiation-emitting components (3) may comprise in particular the following steps: A) providing a carrier body (1) with a surface (10) having different partial surface regions (11, 12), wherein the normal vectors (110, 120) of the different partial surface regions (11, 12) point in different spatial directions, B) arranging at least two radiation-emitting components (3) on two different partial surface regions (11, 12), and C) producing electrical contact-connections to the radiation-emitting components (3).

Abstract: A method and apparatus for producing a lamp in the case of which a lamp bulb closed at one end is filled through a feed opening for a luminous means are disclosed together with a lamp produced using this method. A dome of the lamp bulb can thereby be of smooth design without a pumping tip.

Abstract: A method and apparatus for producing a lamp in the case of which a lamp bulb closed at one end is filled through a feed opening for a luminous means are disclosed together with a lamp produced using this method. A dome of the lamp bulb can thereby be of smooth design without a pumping tip.

Abstract: The invention relates to a production method for an electric lamp and a corresponding lamp. According to the invention, during the production method, a prefabricated glass/metal composite (3) acting as a lamp vessel seal is provided, from which the power supply lines (1, 2) for the at least one luminous element (5) protrude, the at least one luminous element (5) being connected to its power supply lines (1, 2) during a first method step, and the lamp vessel (6) being turned up over the at least one luminous element (5) and connected to the glass/metal composite (3) during a second method step following on from the first method step.