Abstract: A two-conductor field device, comprising a measuring transducer for capturing a measurement variable, an electronic unit for processing the measurement data and a two-conductor interface for supplying power to the two-conductor field device and for communicating with a superordinate unit, characterized in that the two-conductor field device has a display unit for signaling a state of the two-conductor field device, which display unit can be visually read remotely.

Abstract: A field device with a two-wire supply interface suitable for receiving energy via a two-wire system and for signal transmission via the two-wire system, an integrated sensor, at least one additional interface suitable for signal reception and a functional unit or functional group for data and/or signal processing, which is coupled to the two-wire supply interface, the additional interface and the integrated sensor, as well as a measuring assembly with a field device and a method for providing an output signal.

Abstract: Described herein are oligosaccharyl transferases for use in N-glycosylating proteins of interest in vitro and in host cells. Methods for using such oligosaccharyl transferases, nucleic acids encoding such oligosaccharyl transferases, and host cells comprising such oligosaccharyl transferases are also provided herein. Glycoconjugates generated by using such oligosaccharyl transferases are also provided herein.

Abstract: The disclosure relates to a closure device for attaching to a robot, preferably quick closure device and/or for overpressure-tight closing of a cavity of the robot up to at least 175, 200 or 225 mbar. The closure device comprises a removable covering element for covering a cavity of the robot and a fastening apparatus for fastening the covering element to the robot, wherein the fastening apparatus comprises a rotatable closure element. The fastening apparatus is characterized in particular in that it has a rotational closing movement between 45° and 215° and thus can be moved by a rotational closing movement between 45° and 215° into a closure position.

Abstract: Described herein are oligosaccharyl transferases for use in N-glycosylating proteins of interest in vitro and in host cells. Methods for using such oligosaccharyl transferases, nucleic acids encoding such oligosaccharyl transferases, and host cells comprising such oligosaccharyl transferases are also provided herein. Glycoconjugates generated by using such oligosaccharyl transferases are also provided herein.

Abstract: Fill level gauge with a single continuously measuring fill level sensor and at least one processor for controlling the fill level sensor and for evaluating the measurements, with the fill level gauge having at least a first operating mode and a second operating mode for determining the fill level, with the measuring device showing in the first operating mode a first measurement rate and a first measurement precision and in the second operating mode showing a second measurement rate and a second measurement precision, wherein the first measurement rate is lower than the second measurement rate and/or the first measurement accuracy is lower than the second measurement accuracy.

Abstract: Described herein are oligosaccharyl transferases for use in N-glycosylating proteins of interest in vitro and in host cells. Methods for using such oligosaccharyl transferases, nucleic acids encoding such oligosaccharyl transferases, and host cells comprising such oligosaccharyl transferases are also provided herein. Glycoconjugates generated by using such oligosaccharyl transferases are also provided herein.

Abstract: A protective shield device for a travel rail is provided, the travel rail including at least one robot with an application element coupled thereon. The protective shield device comprises at least one protective shield component for protecting the travel rail from the application medium, e.g. paint, dispensed by the application element of the at least one robot. The protective shield device is configured to extend over a portion of the travel rail and to move relative to the travel rail.

Abstract: Described herein are oligosaccharyl transferases for use in N-glycosylating proteins of interest in vitro and in host cells. Methods for using such oligosaccharyl transferases, nucleic acids encoding such oligosaccharyl transferases, and host cells comprising such oligosaccharyl transferases are also provided herein. Glycoconjugates generated by using such oligosaccharyl transferases are also provided herein.

Abstract: Described herein are oligosaccharyl transferases for use in N-glycosylating proteins of interest in vitro and in host cells. Methods for using such oligosaccharyl transferases, nucleic acids encoding such oligosaccharyl transferases, and host cells comprising such oligosaccharyl transferases are also provided herein. Glycoconjugates generated by using such oligosaccharyl transferases are also provided herein.

Abstract: Described herein are oligosaccharyl transferases for use in N-glycosylating proteins of interest in vitro and in host cells. Methods for using such oligosaccharyl transferases, nucleic acids encoding such oligosaccharyl transferases, and host cells comprising such oligosaccharyl transferases are also provided herein. Glycoconjugates generated by using such oligosaccharyl transferases are also provided herein.

Abstract: Exemplary painting devices for painting components, e.g., motor vehicle bodies or parts thereof may include a multi-axis painting robot positioning an atomizer, a robot controller for controlling the painting robot, and a controls enclosure comprising the robot controller. An exemplary controls enclosure may be a load-bearing column that mechanically supports the painting robot.

Abstract: A protective shield device for a travel rail is provided, the travel rail including at least one robot with an application element coupled thereon. The protective shield device comprises at least one protective shield component for protecting the travel rail from the application medium, e.g. paint, dispensed by the application element of the at least one robot. The protective shield device is configured to extend over a portion of the travel rail and to move relative to the travel rail.

Abstract: A painting station, e.g., for serially painting components such as motor vehicles, is disclosed. A painting station may include at least one painting cell in which components are coated, e.g., with a paint, that has a certain layer thickness. At least one measuring cell is provided for measuring the layer thickness of the paint, e.g., with a radiation source, a radiation detector, and a conveying path along which the components to be coated are conveyed through the painting and measuring cells. The radiation source may emit light in the visible wavelength range.

Abstract: A robot arrangement, for example for a painting booth, and exemplary methods associated with the same, are disclosed. An exemplary robot arrangement may comprise a displacement rail, a plurality of robots, such as painting robots or handling robots, which can be displaced along the displacement rail, and a plurality of energy supply chains. The energy supply chains may supply one of the robots each, and may be associated with said robot, and each of the energy supply chains may run along the displacement rail in a particular track. The energy supply chains which are associated with the robots on the same displacement rail may run in discrete tracks.

Abstract: Exemplary painting devices for painting components, e.g., motor vehicle bodies or parts thereof may include a multi-axis painting robot positioning an atomizer, a robot controller for controlling the painting robot, and a controls enclosure comprising the robot controller. An exemplary controls enclosure may be a load-bearing column that mechanically supports the painting robot.

Abstract: Exemplary painting devices for painting components, e.g., motor vehicle bodies or parts thereof, and associated exemplary methods are disclosed. An exemplary painting device may include a multi-axis painting robot positioning an atomizer, a robot controller for controlling the painting robot, and a controls enclosure comprising the robot controller. An exemplary controls enclosure may be a load-bearing column that mechanically supports the painting robot.

Abstract: A robot arrangement, for example for a painting booth, and exemplary methods associated with the same, are disclosed. An exemplary robot arrangement may comprise a displacement rail, a plurality of robots, such as painting robots or handling robots, which can be displaced along the displacement rail, and a plurality of energy supply chains. The energy supply chains may supply one of the robots each, and may be associated with said robot, and each of the energy supply chains may run along the displacement rail in a particular track. The energy supply chains which are associated with the robots on the same displacement rail may run in discrete tracks.

Abstract: Coating zones having guide elevated rails for coating and/or handling robots are disclosed. The coating zones may include walk-in control areas positioned one above the other on the outside of the side walls. In the upper control area, in which control and supply devices for robots on elevated guide rails may be provided, the side wall may generally slant inward. Load-bearing structures for the elevated guide rails may be braced by supporting members extending generally perpendicular to the line of conveyance of the application objects on or under the floor level or at the ceiling.

Abstract: Exemplary painting devices for painting components, e.g., motor vehicle bodies or parts thereof, and associated exemplary methods are disclosed. An exemplary painting device may include a multi-axis painting robot positioning an atomizer, a robot controller for controlling the painting robot, and a controls enclosure comprising the robot controller. An exemplary controls enclosure may be a load-bearing column that mechanically supports the painting robot.