Rentsch Partner AG

Die vorliegende Offenbarung bezieht sich auf ein Verfahren zum Herstellen eines Betonsegments mittels einer Schalungsroboteranordnung und eine Schalungsroboteranordnung zum Herstellen eines Betonsegments. Das Verfahren umfasst die folgenden Verfahrensschritte: Bereitstellen einer Schalungsroboteranordnung (1) mit einer ferromagnetischen Schaltafel (2) und mit einer in Bezug zur Schaltafel (2) verfahrbaren Roboterkinematik (3); Verfahren der Roboterkinematik (3) und Setzen des Magnetelements (5) an eine vorgegebene Position auf der Schaltafel (2) durch die Roboterkinematik (3); und Automatisiertes Verbinden eines Installationsteils (7) mit dem auf der Schaltafel (2) positionierten Magnetelementen (5) durch die Roboterkinematik (3).

The present disclosure relates to an ophthalmological device for surgical treatment of a cornea (202) of an eye (201), the ophthalmological device (100) comprising a laser source, a focusing optics, a scanner system and an electronic circuit. The electronic circuit is configured to control a first scanner device of the scanner system to move the focal spot (S) with a first scanning speed along a line, thereby forming a scan line (130), to control a second scanner device of the scanner system to move the scan line (130) with a second scanning speed along a predetermined processing path (160), which extends inside the cornea (202), for treating the cornea (202), and to control the ophthalmological device to vary at least one of: a geometrical parameter of the scan line (130) or a physical parameter of the scan line (130), along the predetermined processing path (160).

The present disclosure relates to an antenna arrangement (1), which comprises a baseplate (2) which is at least partially electrically conductive. Said baseplate has a top face (21) and a bottom face (22). The antenna arrangement (1) further comprises at least one radiator assembly (3), which comprises at least one first vertical section (4), which extends in a first vertical plane (VP1) from a first edge (41), which is at least partially arranged on and in electrical contact with the top face (21) of the baseplate (2), to a second edge (42) and at least one first horizontal section (5), which extends in a horizontal plane (HP) from a first edge (51) to a second edge (52). The first vertical section (4) forms part of a vertically polarized tapered slot antenna (VA) and the first horizontal section (5) forms part of a horizontally polarized tapered slot antenna (TA). The present disclosure further relates to a vehicle comprising such an antenna arrangement (1) as well as a method for transmitting and/or receiving communication signals by using such an antenna arrangement (1).

The present disclosure relates to a heat recovery unit (100) comprising a heat exchanger (1) for heat exchange between at least two fluids. The heat exchanger (1) comprises a stack (2) of alternatingly arranged heat exchange elements of a first type (21) and heat exchange elements of a second type (22), wherein the heat exchange elements of the first type (21) and the heat exchange elements of the second type (22) define alternatingly arranged first flow paths (23) and second flow paths (24) between each other, wherein each first flow path (23) extends from a first inlet (231) to a first outlet (232) and each second flow path (24) extends from a second inlet (241) to a second outlet (242). The heat recovery unit () further comprises a first fan (3) being configured to actively move a first fluid (F1) through the first flow paths (23) of the heat exchanger (1) and a second fan (4) being configured to actively move a second fluid (F2) through the second flow paths (24) of the heat exchanger (1) and a controller (5) configured to control the first (3) and second (4) fan, said controller (5) is configured to activate a bypass mode in which the controller (5) activates the first fan (3) and the second fan (4) in an alternating operation, such that only one of the two fluids (F1, F2) is actively moved through the heat exchanger (1) at a time. The present disclosure further relates to a method of operating the heat exchanger (1)

The disclosure provides an example watch. The watch includes (a) a housing having a first face and a second face and a cavity extending therebetween, where the first face includes a first bezel coupled to a first transparent watch crystal, (b) a disc disposed within the cavity between the first face and the second face and coupled to the housing, where the disc comprises a watch face for indicating time, and (c) a case cap removably coupled to the second face of the housing, where the case cap includes a casing having a first side configured to mate with the second face of the housing and a second side configured to be engraved.

The disclosure relates to a portioning unit typically comprising a first chamber, interconnected to the extrusion unit by a first valve, and a first piston arranged in the first chamber displaceable in a longitudinal direction of the first chamber configured to receive a specific volume of plastic material from the extrusion unit by the first valve. Usually a second chamber having an inlet opening, which is in fluid connection with the first chamber by a second valve, is configured to receive plastic material from the first chamber through the second valve and a second piston displaceable in a longitudinal direction of the second chamber to discharge the specific volume from the portioning unit through a discharge opening by displacing the second piston from an extended position to a retracted position.

Disclosed herein is a method for producing a midsole for a running shoe, the method comprising: Providing a three-dimensional model of a three-dimensional pre-product, wherein the pre-product comprises a three-dimensional lattice structure; b. Additively manufacturing the three-dimensional pre-product according to the provided three-dimensional model of the pre-product; c.Infusing the additively manufactured three-dimensional pre-product with a blowing agent in an autoclave at a first temperature and a first pressure; and d.Foaming of the infused three-dimensional pre-product to generate the midsole comprising an anisotropically foamed three-dimensional lattice structure.

Die vorliegende Erfindung bezieht sich auf eine Leitungsdurchführung (1) für eine Leitung und eine Methode zur Installation einer Leitung in einer Leitungsdurchführung. Die Leitungsdurchführung umfasst hierbei eine sich um eine Mittelache von einem proximalen Ende (5) zu einem distalen Ende (6) erstreckende röhrenförmige Seitenwand (3), und eine an dem distalen Ende (6) der röhrenförmigen Seitenwand angeordnete Haltestruktur (4). Die Leitungsdurchführung (4) ist ferner derart ausgelegt ist, dass beim Durchführen einer Leitung (2) in eine erste Richtung die Leitung (2) durch die Haltestruktur (4) in einer Gleitposition gleitet, und beim Durchführen der Leitung (2) in einer zur ersten Richtung entgegengesetzten zweiten Richtung die Haltestruktur (4) in eine Fixierposition deformiert, in der die Haltestruktur (4) über eine Kraftübertragungsfläche (9) mit der röhrenförmigen Seitenwand (3) in Kontakt steht, und eine zum Durchführen initial auf die Leitung aufgebrachte Kraft über die Kraftübertragungsfläche (9) auf die röhrenförmige Seitenwand (3) übertragen wird, sodass eine radiale Deformation der Haltestruktur (4) und/oder des proximalen Endes (6) der Seitenwand (3) eine radial nach innen gerichtete Haltekraft auf die Leitung ausübt.

A configuration card (1) comprises a communication circuit (11) and an antenna (10) connected to the communication circuit (11). The communication circuit (11) is powered by a current induced in the antenna (10) by an electromagnetic field (3) produced by an external device (2). The communication circuit (11) is configured for radio-based wireless exchange of data with the external device (2) via the antenna (10). The configuration card (1) further comprises electromechanical switches (12) configured to set a plurality of more than two switching states. The communication circuit (11) is configured to transmit to the external device (2) a data value depending on a current switching state of the electromechanical switches (12).

Disclosed is an integrated circuit card (1) comprising an antenna (10) and a communication circuit (11) configured for radio-based wireless exchange of data with an external device (2) via the antenna (10). The integrated circuit card (1) further comprises electromechanical switches (12) connected to the communication circuit (11) and configured to set a plurality of more than two switching states and a secure element (14) connected to the communication circuit (11), the secure element (14) configured to exchange data with the external device (2) via the antenna (10) and the communication circuit (11).