Abstract: A method for scanning solid angles is provided using at least two electromagnetic beams, at least one electromagnetic beam being generated that is subsequently deflected along a horizontal angle and/or along a vertical angle with the aid of a rotatable mirror; the solid angles being scanned using the at least one electromagnetic beam; and at least one reflected electromagnetic beam being received, after being reflected off an object, by a receiving optics that is pivotable along the horizontal angle synchronously with the mirror. Furthermore, a LIDAR device for carrying out the method is provided.

Abstract: A LiDAR system which includes an optical system that encompasses a first lens, which is preferably statically positioned, and a second lens, which is preferably rotatably supported in relation to the first lens. The first lens and the second lens are situated along a shared optical path, and at least either the first lens or the second lens is configured to be set into rotation in order to bring about a beam deflection from the optical path in at least one spatial direction.

Abstract: The present invention relates to a rotary evaporator (1) comprising an evaporator flask (10) and a heating bath (20), wherein the evaporator flask (10) can be dipped into the heating bath (20), further comprising a dipping control device (40) for controlling the dipping depth of the evaporator flask (10) into the heating bath (20), wherein the dipping control device (40) is set up to determine the level (25) of the heating bath (20) and wherein the dipping control device (40) is set up to control the dipping depth of the evaporator flask (10) into the heating bath (20) in dependence on the level (25) of the heating bath (20).

Abstract: A LIDAR device for scanning a scanning angle using at least one beam includes at least one beam source generating the at least one beam, a rotatable deflection unit deflecting the at least one beam, and a detector receiving the at least one beam after reflection on an object, where at least two cylindrical lenses are situated in a beam path of the at least one beam between the beam source and the deflection unit, at least one cylindrical lens is rotatable.

Abstract: A LIDAR apparatus for scanning a scan region with at least one beam is described. The LIDAR apparatus includes at least one beam source for generating the at least one beam; having a mirror for deflecting the at least one generated beam toward the scan region; and having a detector mirror for deflecting at least one beam, reflected at an object, onto a defined region of a detector, the mirror and the detector mirror being disposed on a rotor rotatably around a vertical rotation axis, and the detector mirror focusing the at least one reflected beam onto the detector. A method for operating a LIDAR apparatus is also described.

Abstract: An optical interface includes a light-conducting fiber having a ring section that extends annularly about a rotation axis, at least one light source for emitting light signals into the fiber via fiber coupling, which fiber is designed to radially emit the light signals from the light source, and a receiving device for receiving the light signals emitted by the fiber.

Abstract: A LIDAR device. The LIDAR device includes a housing; and an essentially flat first optical element formed from glass and situated in a side wall of the housing.

Abstract: The present invention relates to a rotary evaporator (1) comprising an evaporator flask (10) and a heating bath (20), wherein the evaporator flask (10) can be dipped into the heating bath (20), further comprising a dipping control device (40) for controlling the dipping depth of the evaporator flask (10) into the heating bath (20), wherein the dipping control device (40) is set up to determine the level (25) of the heating bath (20) and wherein the dipping control device (40) is set up to control the dipping depth of the evaporator flask (10) into the heating bath (20) in dependence on the level (25) of the heating bath (20).

Abstract: A LIDAR device for scanning a scanning angle using at least one beam includes at least one beam source generating the at least one beam, a rotatable deflection unit deflecting the at least one beam, and a detector receiving the at least one beam after reflection on an object, where at least two cylindrical lenses are situated in a beam path of the at least one beam between the beam source and the deflection unit, at least one cylindrical lens is rotatable.

Abstract: A method for producing a multi-component part (200) of a vehicle includes inserting an air-guiding device (10) having at least one contact portion (40) into a cavity (310) of a tool (300). The method then includes heating a composite part (100) having at least one mating contact portion (140) to a melting point of at least one material of the composite part (100), and heating the contact portion (40) of the air-guiding device (10) to a melting point of at least one material of the contact portion (40). The method further includes inserting the heated composite part (100) into the cavity (310) of the tool (300) and pressing the heated composite part (100) into a geometry of the part while simultaneously forming an integrally bonded connection between the mating contact portion (140) of the composite part (100) and the contact portion (40) of the air-guiding device (10).

Abstract: An optical interface includes a light-conducting fiber having a ring section that extends annularly about a rotation axis, at least one light source for emitting light signals into the fiber via fiber coupling, which fiber is designed to radially emit the light signals from the light source, and a receiving device for receiving the light signals emitted by the fiber.

Abstract: A method for scanning solid angles is provided using at least two electromagnetic beams, at least one electromagnetic beam being generated that is subsequently deflected along a horizontal angle and/or along a vertical angle with the aid of a rotatable mirror; the solid angles being scanned using the at least one electromagnetic beam; and at least one reflected electromagnetic beam being received, after being reflected off an object, by a receiving optics that is pivotable along the horizontal angle synchronously with the mirror. Furthermore, a LIDAR device for carrying out the method is provided.

Abstract: A LIDAR apparatus for scanning a scan region with at least one beam is described. The LIDAR apparatus includes at least one beam source for generating the at least one beam; having a mirror for deflecting the at least one generated beam toward the scan region; and having a detector mirror for deflecting at least one beam, reflected at an object, onto a defined region of a detector, the mirror and the detector mirror being disposed on a rotor rotatably around a vertical rotation axis, and the detector mirror focusing the at least one reflected beam onto the detector. A method for operating a LIDAR apparatus is also described.

Abstract: A LiDAR system which includes an optical system that encompasses a first lens, which is preferably statically positioned, and a second lens, which is preferably rotatably supported in relation to the first lens. The first lens and the second lens are situated along a shared optical path, and at least either the first lens or the second lens is configured to be set into rotation in order to bring about a beam deflection from the optical path in at least one spatial direction.

Abstract: A method for producing a multi-component part (200) of a vehicle includes inserting an air-guiding device (10) having at least one contact portion (40) into a cavity (310) of a tool (300). The method then includes heating a composite part (100) having at least one mating contact portion (140) to a melting point of at least one material of the composite part (100), and heating the contact portion (40) of the air-guiding device (10) to a melting point of at least one material of the contact portion (40). The method further includes inserting the heated composite part (100) into the cavity (310) of the tool (300) and pressing the heated composite part (100) into a geometry of the part while simultaneously forming an integrally bonded connection between the mating contact portion (140) of the composite part (100) and the contact portion (40) of the air-guiding device (10).