Abstract: A closure package for a vibration damper may include a base body that is connectable to a damper tube and comprises a first end and a second end. The first end forms an end side of the damper tube and the second end is disposed in the damper tube. A seal for sealing a piston rod may be disposed in the base body. A seal holder may be disposed between the seal and the base body at the first end. The seal holder for axially fixing the seal may be connected to the base body in a form-fitting and/or force-fitting manner. The seal holder may be fusible in an emergency. For releasing the connection to the base body, the seal holder may be thermoplastically deformable upon overheating of the vibration damper.

Abstract: A closure package for a vibration damper may include a base body that is connectable to a damper tube and comprises a first end and a second end. The first end forms an end side of the damper tube and the second end is disposed in the damper tube. A seal for sealing a piston rod may be disposed in the base body. A seal holder may be disposed between the seal and the base body at the first end. The seal holder for axially fixing the seal may be connected to the base body in a form-fitting and/or force-fitting manner. The seal holder may be fusible in an emergency. For releasing the connection to the base body, the seal holder may be thermoplastically deformable upon overheating of the vibration damper.

Abstract: A strut bearing may help bear a strut on a vehicle body and set and adjust camber at the strut of a wheel suspension. The strut bearing may include a fixing means, a releasable clamping connection between the strut bearing and the vehicle body, a strut receiver, and an adjustment device. The adjustment device may comprise a sliding block with a guide element, a bearing plate with a guide element receiver forming a linear guide of the sliding block with the guide element together with the guide element receiver, and a clamping plate. The bearing and clamping plates and the sliding block may be arranged such that the sliding block is clamped between the bearing and clamping plates. The strut receiver may be arranged on the sliding block such that a position of the sliding block in the linear guide correlates with the setting of the camber at the strut.

Abstract: A transport, storage and sequencing system for goods includes at least two access stations and a dedicated bidirectional transport way, including two transport lanes for accommodating a plurality of transport units running in both directions, along a transport route linking the at least two access stations. The transport way includes a service lane extending along an essential proportion of the transport route, the transport units being selectively divertable between the transport lanes and the service lane. The system further includes a control system for controlling movement of the plurality of transport units in such a way that selected transport units are temporarily stored on the service lane for a determinable time interval; and/ or a sequence of transport units is modified using the service lane in preparation of further processing of a subset of the transport units in one of the access stations and/or in a subsequent transporting stage.

Abstract: A strut bearing may help bear a strut on a vehicle body and set and adjust camber at the strut of a wheel suspension. The strut bearing may include a fixing means, a releasable clamping connection between the strut bearing and the vehicle body, a strut receiver, and an adjustment device. The adjustment device may comprise a sliding block with a guide element, a bearing plate with a guide element receiver forming a linear guide of the sliding block with the guide element together with the guide element receiver, and a clamping plate. The bearing and clamping plates and the sliding block may be arranged such that the sliding block is clamped between the bearing and clamping plates. The strut receiver may be arranged on the sliding block such that a position of the sliding block in the linear guide correlates with the setting of the camber at the strut.

Abstract: An optoelectronic component includes a housing body comprising a mounting face and a leadframe embedded into the housing body. The leadframe comprises a first and a second leadframe section, wherein the leadframe sections each comprise a contact region and a terminal region. While the contact regions are exposed at the mounting face, the terminal regions project laterally from the housing body. The housing body is completely enclosed by a molding material, wherein the terminal regions are not enclosed by the molding material.

Abstract: An optoelectronic component includes a housing body comprising a mounting face and a leadframe embedded into the housing body. The leadframe comprises a first and a second leadframe section, wherein the leadframe sections each comprise a contact region and a terminal region. While the contact regions are exposed at the mounting face, the terminal regions project laterally from the housing body. The housing body is completely enclosed by a molding material, wherein the terminal regions are not enclosed by the molding material.

Abstract: A radiation-emitting component is disclosed. In embodiments a component includes a radiation-emitting semiconductor chip having a radiation exit area including a side face and a main face, a conversion element having a radiation exit area including a side face and a main face, and a first reflection element disposed downstream of the conversion element and the radiation-emitting semiconductor chip, wherein a ratio of a sum of the radiation exit areas of the radiation-emitting semiconductor chip to a sum of the radiation exit areas of the conversion element is greater than 1, wherein the conversion element adjoins the radiation-emitting semiconductor chip, wherein the radiation-emitting semiconductor chip is configured to generate primary radiation, wherein the conversion element is configured to convert the primary radiation into secondary radiation, and wherein the primary radiation and the secondary radiation leave the radiation-emitting component exclusively through the first reflection element.

Abstract: A radiation-emitting component is disclosed. In embodiments a component includes a radiation-emitting semiconductor chip having a radiation exit area including a side face and a main face, a conversion element having a radiation exit area including a side face and a main face, and a first reflection element disposed downstream of the conversion element and the radiation-emitting semiconductor chip, wherein a ratio of a sum of the radiation exit areas of the radiation-emitting semiconductor chip to a sum of the radiation exit areas of the conversion element is greater than 1, wherein the conversion element adjoins the radiation-emitting semiconductor chip, wherein the radiation-emitting semiconductor chip is configured to generate primary radiation, wherein the conversion element is configured to convert the primary radiation into secondary radiation, and wherein the primary radiation and the secondary radiation leave the radiation-emitting component exclusively through the first reflection element.