Abstract: A device for testing the contents of a switch cabinet following installation of equipment components (2a-2e) according to a plan and the wiring thereof via terminals (6) provided therefor by means of designated electrical cables (5), includes a camera unit (7) for the at least two-dimensional image capture of the components (2a-2e) fully installed and wired on an installation board (4) of a switch cabinet (1). The device can further include an evaluation unit (8) for carrying out a comparison between an imaged layout (100), on the basis of the image capture, of the actual state with a provided plan layout (200) of the target state.

Abstract: The invention relates to a method for machining at least one switchgear cabinet including: providing at least one switchgear cabinet which is constructed in several parts and comprises at least one detachably mounted component; disassembling and removing the detachably mounted component from the switch cabinet; machining the disassembled and removed component and providing the machined component for reassembly on the associated switch cabinet; and re-assigning the machined component provided for reassembly to the corresponding control cabinet, wherein the at least one switch cabinet has an individual machine-readable switch cabinet identification and the at least one removably mounted component has an individual machine-readable component identification, which are assigned to one another, wherein re-assigning the component to the switch cabinet comprising machine-reading of the machine-readable identifications and bringing together the component and the switch cabinet which have the mutually assigned iden

Abstract: A system and method for mounting a modular switch cabinet equipment in a switch cabinet housing (6) includes a computer-aided assistance unit (1) for determining a production-efficient assembly step sequence. The system and method further include at least one display unit (11-11?) for image and/or text information, which is installed at the assembly site for at least one fitter (M) in order to visualize manual assembly steps (A; B; D) of the determined assembly step sequence. The system and method further includes at least one input unit (12-12?) for acknowledgement of the completed assembly step (A; B; D) by the fitter (M).

Abstract: A method and a system for collecting and processing of life cycle information about a switch cabinet (1) of an industrial plant, with a documentation server (2) for linking data sheet information (A) of the built-in modules (9a-9c) installed in the switch cabinet (1) on the basis of the planned construction (4) with function information (B) about their use in the context of the switch cabinet equipment, in order to store this information in a central archive database (3) under an individual switch cabinet identification (8) in data records, wherein test and acceptance information (C) of the switch cabinet (1) is added to the data records of the central archive database (3) via the documentation server (2).

Abstract: A device for testing the contents of a switch cabinet following installation of equipment components (2a-2e) according to a plan and the wiring thereof via terminals (6) provided therefor by means of designated electrical cables (5), includes a camera unit (7) for the at least two-dimensional image capture of the components (2a-2e) fully installed and wired on an installation board (4) of a switch cabinet (1). The device can further include an evaluation unit (8) for carrying out a comparison between an imaged layout (100), on the basis of the image capture, of the actual state with a provided plan layout (200) of the target state.

Abstract: A computer-aided switchgear cabinet configuration system, set up for configuring a switchgear cabinet which comprises a modular switchgear cabinet equipment which is composed in an application-specific manner of a plurality of electrical and/or electronic built-in modules and further optional components, having a computing unit with a classification device and an evaluation and simulation unit for generating a bundle of different switchgear cabinet concepts with in each case different layouts, a subsequent selection of a specific layout and a corresponding control of a switchgear cabinet production line.

Abstract: A method and a system for collecting and processing of life cycle information about a switch cabinet (1) of an industrial plant, with a documentation server (2) for linking data sheet information (A) of the built-in modules (9a-9c) installed in the switch cabinet (1) on the basis of the planned construction (4) with function information (B) about their use in the context of the switch cabinet equipment, in order to store this information in a central archive database (3) under an individual switch cabinet identification (8) in data records, wherein test and acceptance information (C) of the switch cabinet (1) is added to the data records of the central archive database (3) via the documentation server (2).

Abstract: A system and method for mounting a modular switch cabinet equipment in a switch cabinet housing (6) includes a computer-aided assistance unit (1) for determining a production-efficient assembly step sequence. The system and method further include at least one display unit (11-11?) for image and/or text information, which is installed at the assembly site for at least one fitter (M) in order to visualize manual assembly steps (A; B; D) of the determined assembly step sequence. The system and method further includes at least one input unit (12-12?) for acknowledgement of the completed assembly step (A; B; D) by the fitter (M).

Abstract: The invention relates to a method for machining at least one switchgear cabinet including: providing at least one switchgear cabinet which is constructed in several parts and comprises at least one detachably mounted component; disassembling and removing the detachably mounted component from the switch cabinet; machining the disassembled and removed component and providing the machined component for reassembly on the associated switch cabinet; and re-assigning the machined component provided for reassembly to the corresponding control cabinet, wherein the at least one switch cabinet has an individual machine-readable switch cabinet identification and the at least one removably mounted component has an individual machine-readable component identification, which are assigned to one another, wherein re-assigning the component to the switch cabinet comprising machine-reading of the machine-readable identifications and bringing together the component and the switch cabinet which have the mutually assigned iden

Abstract: The invention relates to a device for machining a planar workpiece, having a machine stand which has a support surface (application surface) for a planar workpiece, and further having a machining head which can be moved relative to the support surface, which machining head has a tool for machining the workpiece and also has a holding unit (“hold-down unit”) with a pressure plate whereby the workpiece is pressed against the supporting surface; characterized in that the pressure plate has a structure which is comprised of a plurality of pieces, preferably two pieces, wherein at least one of the pressure plate parts is movable back and forth relative to at least one other pressure plate part, namely it is movable between the application position, in which the pressure plate part presses the workpiece against the application surface when the workpiece is applied to said application surface, and a released position, in which the pressure plate piece is at a minimum distance away from the workpiece when the workpie

Abstract: A method performed by a first network device for applying Quality-of-Service (QoS) on a virtual interface over a multi-path transport topology. The method includes receiving a packet of the virtual interface from a service home network processing unit (NPU), where the virtual interface has been provisioned with a virtual interface QoS, where the service home NPU has applied the virtual interface QoS on the packet, and where the packet includes a physical transport link identifier (ID) that identifies a physical transport link over which the packet is to be forwarded. The method further includes selecting a virtual adjacency based on metadata included in the packet and using the selected virtual adjacency to select a queue based on the physical transport link ID and store the packet in the selected queue. The method further includes performing scheduling to select the queue and sending the packet over the physical transport link.

Abstract: The invention relates to a device for machining a planar workpiece, having a machine stand which has a support surface (application surface) for a planar workpiece, and further having a machining head which can be moved relative to the support surface, which machining head has a tool for machining the workpiece and also has a holding unit (“hold-down unit”) with a pressure plate whereby the workpiece is pressed against the supporting surface; characterized in that the pressure plate has a structure which is comprised of a plurality of pieces, preferably two pieces, wherein at least one of the pressure plate parts is movable back and forth relative to at least one other pressure plate part, namely it is movable between the application position, in which the pressure plate part presses the workpiece against the application surface when the workpiece is applied to said application surface, and a released position, in which the pressure plate piece is at a minimum distance away from the workpiece when the workpie

Abstract: A method performed by a first network device for applying Quality-of-Service (QoS) on a virtual interface over a multi-path transport topology. The method includes receiving a packet of the virtual interface from a service home network processing unit (NPU), where the virtual interface has been provisioned with a virtual interface QoS, where the service home NPU has applied the virtual interface QoS on the packet, and where the packet includes a physical transport link identifier (ID) that identifies a physical transport link over which the packet is to be forwarded. The method further includes selecting a virtual adjacency based on metadata included in the packet and using the selected virtual adjacency to select a queue based on the physical transport link ID and store the packet in the selected queue. The method further includes performing scheduling to select the queue and sending the packet over the physical transport link.

Abstract: Exemplary methods receiving a packet of a virtual interface provisioned with a virtual interface QoS, wherein the virtual interface comprises a hierarchy of sub interfaces. The methods include selecting a virtual adjacency from a plurality of virtual adjacencies, wherein each virtual adjacency is associated with the virtual interface or a sub interface of the virtual interface. The methods include using the selected virtual adjacency to select a queue based on a priority of the packet, and store the packet in the selected queue. The methods include performing hierarchical scheduling based on the virtual interface QoS to select the queue from all sets of virtual interface queues of all virtual adjacencies, and sending the packet from the selected queue and a transport link identifier (ID) to a physical network processing unit.

Abstract: Exemplary methods receiving a packet of a virtual interface provisioned with a virtual interface QoS, wherein the virtual interface comprises a hierarchy of sub interfaces. The methods include selecting a virtual adjacency from a plurality of virtual adjacencies, wherein each virtual adjacency is associated with the virtual interface or a sub interface of the virtual interface. The methods include using the selected virtual adjacency to select a queue based on a priority of the packet, and store the packet in the selected queue. The methods include performing hierarchical scheduling based on the virtual interface QoS to select the queue from all sets of virtual interface queues of all virtual adjacencies, and sending the packet from the selected queue and a transport link identifier (ID) to a physical network processing unit.