Abstract: The invention relates to a method for calibrating, in particular, sintered pressed parts, wherein a calibration procedure of each individual pressed part is controlled depending on at least one specific pressed part parameter of the respective pressed part measured before calibration and/or depending on at least one production parameter of a preceding pressing and/or sintering step of the respective pressed part.

Abstract: The invention relates to a method for producing an orthopedic device, particularly a prosthesis liner, characterized in that the orthopedic device is produced at least partially by means of an additive manufacturing process from at least one production material that is introduced into a support material in a flowable state and then hardens.

Abstract: The present invention provides a method for the preparation of organoids that allow the 3D culture or co-culture of cells in an environment that closely mimics the natural in vivo situation. The organoids are prepared from liquid pearls. They may be used in the variety of applications including drug testing and screening and personalized medicine.

Abstract: A polymer composition comprising: (i) at least 40 wt % LDPE; (ii) a polypropylene homopolymer; and (iii) a random heterophasic polypropylene copolymer.

Abstract: A semiconductor module arrangement includes a first substrate with a first plurality of semiconductor bodies arranged thereon, a second substrate with a second plurality of semiconductor bodies arranged thereon, and a third substrate with a third plurality of semiconductor bodies arranged thereon. The first, second and third pluralities of semiconductor bodies together form a semiconductor arrangement, the semiconductor arrangement including a first node configured to be operatively coupled to a first electrical potential, and a second node configured to be operatively coupled to a second electrical potential that is different from the first electrical potential. A layout of the third substrate with the third plurality of semiconductor bodies arranged thereon equals a layout of the second substrate with the second plurality of semiconductor bodies arranged thereon.

Abstract: The invention relates to a method for producing an orthopedic device, particularly a prosthesis liner, characterized in that the orthopedic device is produced at least partially by means of an additive manufacturing process from at least one production material that is introduced into a support material in a flowable state and then hardens.

Abstract: A semiconductor module arrangement includes a substrate including a dielectric insulation layer and a first metallization layer arranged on a surface of the dielectric insulation layer, wherein the first metallization layer comprises a first section, a second section, and a third section, and a first semiconductor body and an identical second semiconductor body arranged on the first metallization layer, wherein each of the first semiconductor body and the second semiconductor body has a first contact pad, a second contact pad, and a third contact pad arranged on a top side of the respective semiconductor body that faces away from the substrate, wherein the third contact pad of the first semiconductor body is electrically coupled to the third section of the first metallization layer by means of a first electrical connection element, the third contact pad of the second semiconductor body is electrically coupled to the third section of the first metallization layer by means of a second electrical connection elem

Abstract: An electronic device including a master device, the master device including an interface component to a slave device. The interface component includes a sampling circuit having a clock input, a transmit clock generator configured to generate a transmit clock, a first off-chip driver configured to receive the transmit clock and provide the transmit clock to the slave device, a second off-chip driver configured to receive the transmit clock and configured to supply the transmit clock to the clock input of the sampling circuit of the interface component and a data input configured to receive data from the slave device. The sampling circuit is configured to sample the received data in accordance with the transmit clock supplied by the second off-chip driver.

Abstract: An inclination compensating device for a carriage of a conveyor device for the horizontal transport of conveyed material, wherein a drive element is driven via the pivot drive, which drive element is fastened to an end of a pivot lever extending away from the inclination compensating element, which end is opposite the inclination compensating element, and which drive element has a drive axis arranged parallel or perpendicular to the pivot axis, wherein the drive element rolls on at least one guide, in particular extending equidistantly to the pivot axis, in particular in a force-locking or form-locking manner, which guide is mounted or formed on the holding frame.

Abstract: The invention relates to a magnetocaloric generator includes a set of porous active elements based of MCM materials, and a magnetic arrangement. The magnetic arrangement includes two superposed magnetic rotors, namely an external magnetic rotor and an internal magnetic rotor delimiting an air gap between them, and includes one same number of magnetic poles. The set of active elements includes a stator disposed in said air gap. The active elements extending axially in said stator enable a two-directional axial circulation of a heat-transfer fluid between a hot end and a cold end of said generator. The external magnetic rotor is advantageously coupled, on the one hand, to an electrical machine by a mechanical coupling, and on the other hand, to said internal magnetic rotor by a magnetic coupling, such that said rotors move in one same direction of rotation and are magnetically synchronous.

Abstract: The invention relates to a magnetocaloric generator includes a set of porous active elements based of MCM materials, and a magnetic arrangement. The magnetic arrangement includes two superposed magnetic rotors, namely an external magnetic rotor and an internal magnetic rotor delimiting an air gap between them, and includes one same number of magnetic poles. The set of active elements includes a stator disposed in said air gap. The active elements extending axially in said stator enable a two-directional axial circulation of a heat-transfer fluid between a hot end and a cold end of said generator. The external magnetic rotor is advantageously coupled, on the one hand, to an electrical machine by a mechanical coupling, and on the other hand, to said internal magnetic rotor by a magnetic coupling, such that said rotors move in one same direction of rotation and are magnetically synchronous.

Abstract: A power semiconductor module arrangement includes a substrate including a dielectric insulation layer and a first metallization layer arranged on a first side of the dielectric insulation layer, wherein the first metallization layer includes a plurality of different sections that are separate and distinct from each other, and a plurality of semiconductor bodies arranged on the first metallization layer, and including a first sub-group of semiconductor bodies and a second sub-group of semiconductor bodies, wherein the semiconductor bodies of the first sub-group differ from the semiconductor bodies of the second sub-group, wherein each of the plurality of semiconductor bodies includes a control electrode and a controllable load path between a first load electrode and a second load electrode, the first sub-group is symmetrical to the second sub-group.

Abstract: A charging device for electric vehicles, comprising at least one docking station, at least one charging unit attachable to the docking station. The docking station has plurality of recesses. The charging unit has a plurality of bars insertable into the docking station recesses, each of which comprises at least one first locking element, at least one locking module movable between a locking position and an open position which has a plurality of second locking elements corresponding to the first locking elements. In the open position of the locking module, the bars are insertable into the recesses in such a way that the bars are movable into a snapping position, In the snapping position, the locking module is movable from the open position into the closed position such that the bars are positively fixable to the docking station by an interaction of the second locking elements with the first locking elements.

Abstract: A tracking server may receive, from a requester, a content request for accessing a content element on a content server. The content request includes a request URL with at least a content identifier specifying the requested content element on the content server, and a request referral identifier. If the content identifier does not refer to a content element provided on the content server, an error response is sent. If the content identifier refers to a content element provided on the content server, a new and unique referral identifier associated with the content request is generated. Further, a new and unique referral URL for the content request is generated as a response URL comprising the received content identifier and the newly generated unique referral identifier. The requested content element is then served to the requester under the response URL.

Abstract: A furniture drive includes an electric drive motor and a brake device. The drive motor has an output shaft which projects beyond a motor housing and the brake device has at least one brake element and one force accumulator. The force accumulator permanently loads a friction surface of the at least one brake element with a brake force. The force accumulator and the brake element are configured in one piece. Coefficients of static and sliding friction between the friction surface of the brake element and the output shaft differ by a factor of at least 1.3. An EMF brake is provided for the drive motor.

Abstract: The invention provides a polymer composition comprising (i) 25 to 84 wt % LDPE; (ii) 15 to 74 wt % of a polypropylene; and (iii) 1.0 to 20 wt % of a polyolefin (A) selected from the group consisting of a linear low density polyethylene (LLDPE), high density polyethylene (HDPE), polystyrene and polybutadiene.

Abstract: The invention provides a polymer composition comprising (i) 20 to 84 wt % LDPE; (ii) 15 to 75 wt % of a polypropylene; and (iii) 0.5 to 20 wt % of a styrene block copolymer.

Abstract: The invention relates to a motorized functional fitting (2; 4) for a box-spring bed, said functional fitting comprising: a longitudinal member (2.1; 4.1) extending in a longitudinal axis of the member; a longitudinal member (2.1; 4.1) rotatably connected in an articulated manner to said longitudinal member; an articulated upright framework (2.5; 4.5); and a linear drive (2.4; 4.4) that is connected to the longitudinal member (2.1; 4.1) and acts on the upright framework (2.5; 4.5). In order to simplify the design, according to the invention: the longitudinal member (2.1; 4.1) can be fastened to the frame (6) or the center plate (8); an inner end face of the longitudinal member (2.1; 4.1) is designed to be fastened directly or indirectly to the center plate (8) or to the frame side parts (6.1; 6.2); the drive is located laterally adjacent to the longitudinal member (2.4; 4.4); the upright framework (2.5; 4.5) is rotatably connected in an articulated manner to the longitudinal member (2.1; 4.

Abstract: A cable, preferably a power cable, comprising one or more conductors surrounded by at least one layer, wherein said layer comprises (i) 15 to 84.5 wt % low density polyethylene (LDPE); (ii) a polypropylene; and (iii) a styrene block copolymer; wherein the weight percentages are based on the layer as a whole.

Abstract: The invention provides a polymer composition comprising a) a polyethylene; and b) a conjugated aromatic polymer. The invention also relates to cables comprising said polymer composition and the use of the polymer composition in the manufacture of an insulation layer of cable.