Abstract: The invention relates to a substrate holding and locking system for chemical and/or electrolytic surface treatment of a substrate in a process fluid and a corresponding method. The system comprises a first element, a second element, a reduced pressure holding unit and a magnetic locking unit. The first element and the second element are configured to hold the substrate between each other. The reduced pressure holding unit comprises a pump to reduce an interior pressure inside the substrate holding and locking system below atmospheric pressure. The magnetic locking unit is configured to lock the first element and the second element with each other. The magnetic locking unit comprises a magnet control and at least a magnet. The magnet is arranged at one of the first element and the second element. The magnet control is configured to control a magnetic force between the first element and the second element.

Abstract: An automated food-fryer system is configured to automatically move a food-fryer basket (4) from a food dispense (1)r to a cooking well (3) and then to a food dump (5); the system includes a basket transport system (2) that is made up of several, separate transport modules that are configured to automatically move baskets (4), and in which the movements (i) between the food dispenser (1) to the cooking well (3) and (ii) down into and up from a cooking well (3), are independent of, or asynchronous from, each other.

Abstract: The invention relates to a printing machine with hybrid printing technology for printing on a continuous material web.

Abstract: A tunable plasmon resonator, comprising a plasmon resonance layer made of graphene, a crystalline group-IV-semiconductor material or a crystalline group-III-V semiconductor material, and arranged on a carrier substrate, the plasmon resonance layer having a plasmon resonance region that is exposed to a sensing volume and a tuning device that is integrated into the plasmon resonator and arranged and configured to modify a density of free charge carriers in the plasmon resonance region or to modify an effective mass amount of the free charge carriers in the plasmon resonance region by applying of a control voltage to tuning control electrode(s) of the tuning device, thereby setting a plasmon frequency of plasmon polaritons in the plasmon resonance region to a desired plasmon frequency value within a plasmon frequency tuning interval, for resonance excitation of plasmon polaritons by incident electromagnetic waves of a frequency corresponding to the set plasmon frequency value.

Abstract: A semiconductor light emitter device, comprising a substrate, an active layer made of Germanium, which is configured to emit light under application of an operating voltage to the semiconductor light emitter device, wherein a gap is arranged on the substrate, which extends between two bridgeposts laterally spaced from each other, the active layer is arranged on the bridgeposts and bridges the gap, and wherein the semiconductor light emitter device comprises a stressor layer, which induces a tensile strain in the active layer above the gap.

Abstract: A tunable plasmon resonator, comprising a plasmon resonance layer made of graphene, a crystalline group-IV-semiconductor material or a crystalline group-III-V semiconductor material, and arranged on a carrier substrate, the plasmon resonance layer having a plasmon resonance region that is exposed to a sensing volume and a tuning device that is integrated into the plasmon resonator and arranged and configured to modify a density of free charge carriers in the plasmon resonance region or to modify an effective mass amount of the free charge carriers in the plasmon resonance region by applying of a control voltage to tuning control electrode(s) of the tuning device, thereby setting a plasmon frequency of plasmon polaritons in the plasmon resonance region to a desired plasmon frequency value within a plasmon frequency tuning interval, for resonance excitation of plasmon polaritons by incident electromagnetic waves of a frequency corresponding to the set plasmon frequency value.

Abstract: A semiconductor light emitter device, comprising a substrate, an active layer made of Germanium, which is configured to emit light under application of an operating voltage to the semiconductor light emitter device, wherein a gap is arranged on the substrate, which extends between two bridgeposts laterally spaced from each other, the active layer is arranged on the bridgeposts and bridges the gap, and wherein the semiconductor light emitter device comprises a stressor layer, which induces a tensile strain in the active layer above the gap.

Abstract: The invention relates to an emergency power supply device (200) for an electromotive furniture drive (100) of a piece of furniture (1), comprising a housing in which at least one energy accumulator is arranged, a connection cable having at least two power lines and several auxiliary lines for connecting to the electromotive furniture drive which is to be associated therewith, a socket for connecting a control unit of the electromotive furniture drive which is to be associated therewith, at least one control element which, when actuated, electrically connects the electric connections of the at least one energy accumulator to the at least two power lines of the connection cable. The housing is designed as a shell housing comprising securing sections and an inner compartment for receiving the at least one energy accumulator, said at least one control element and at least one night light. The invention also relates to an electromotive furniture drive (100) and a piece of furniture (1).

Abstract: The invention relates to a control device (9) for at least one electromotive adjusting drive (7, 8) of a piece of furniture (1), comprising at, least one adjusting drive connection (91) for connecting to the at least one electromotive adjusting drive (7, 8), and an interface (92) for coupling to at least one operating unit (10). When a control element (12, 13) of the control unit is actuated, a switch signal is emitted at the end of the control for controlling the at least electromotive adjusting drive (7, 8) and/or an electric motor of the electromotive adjusting drive (7, 8). Said control device is characterised in that it comprises a multi-functional connection (93) designed as a multi-functional interface, said connection comprising at least one data signal line for transferring data, at least one power supply line and at least one signal input and output line.

Abstract: The invention relates to a light bulb (1), the end of which is provided with a polymer ceramic base (5). Said base (5) is injection molded directly onto the end of the bulb.

Abstract: The invention relates to hair treatment products, comprising at least one copolymer made of 0.1 to 50% (in relation to the total number of monomers in the copolymer) monomers of the formula (I), wherein the unknowns are defined as in claim 1, and A2) are monomers from the group of acrylic acid, methacrylic acid and the like, and—optionally non-ionic monomers from the group of acrylamide, vinyl alcohol, and the like, wherein the monomers A2 and A3 together represent 50 to 99.9% (in relation to the total number of monomers in the copolymer) of the copolymer, at least one silicon and at least one selected care product, wherein the products result in advantageous effects for skin and hair.

Abstract: The invention relates to a light bulb (1), the end of which is provided with a polymer ceramic base (5). Said base (5) is injection moulded directly onto the end of the bulb.

Abstract: A furniture item includes a fixed first structure, a second structure, and a drive assembly for moving the second structure in relation to the first structure between predefined target positions. The drive assembly has at least two servo drives. An adjustment mechanism is provided for maintaining the second structure in desired alignment with the first structure and includes a control unit for controlling operation of the servo drives, and first and second signal transducer assemblies which are operatively connected to the control unit, wherein one signal transducer assembly interacts with one servo drive, and the other signal transducer assembly interacts with the other servo drives. So long as a movement to any one of the target positions by the second structure in relation to the first structure is accompanied by a simultaneous activation of the first and second signal transducers assemblies, the second structure is in proper alignment to the first structure.

Abstract: A contact unit described includes a contact plate and a connection plug 4 for an adjusting device. A position sensor is disposed on the contact plate whose electrical contact results over conductor tracks 13 molded into the contact plate. The contact plate 8 further includes contact flags 12 for contacting an electromotor, wherein the contact flags 12 are led outside to a plug 4 over conductor tracks that are injected into the contact plate 8. All conductor tracks are led in a fixed position with respect to one another in a plug inner portion 14, wherein this plug inner portion is produced in one injection process with the contact plate 8, and connection between the contact plate 8 and the plug inner portion results only through the conductor tracks 13.

Abstract: A contact unit described includes a contact plate and a connection plug 4 for an adjusting device. A position sensor is disposed on the contact plate whose electrical contact results over conductor tracks 13 molded into the contact plate. The contact plate 8 further includes contact flags 12 for contacting an electromotor, wherein the contact flags 12 are led outside to a plug 4 over conductor tracks that are injected into the contact plate 8. All conductor tracks are led in a fixed position with respect to one another in a plug inner portion 14, wherein this plug inner portion is produced in one injection process with the contact plate 8, and connection between the contact plate 8 and the plug inner portion results only through the conductor tracks 13.

Abstract: A throttle flap adjustment unit having a throttle flap fastened to a throttle flap shaft. The throttle flap shaft is rotatably journaled in a throttle flap end pipe. A servomotor is provided for adjusting the throttle flap shaft and is connected to the throttle flap shaft by a drive. A sensor unit is provided for determining a position of the throttle flap shaft. A cover is provided to be fastened onto the throttle flap end pipe, wherein the servomotor is positioned in the cover and controllable over an electrical coupling element, wherein the servomotor (6) has a front portion (12) oriented toward the throttle flap end pipe and formed as an end plate (13) for the drive shaft of the servomotor. The end plate (13) also serves to center the servomotor (6) with respect to the throttle flap end pipe (4) and also to center the servomotor (6) in the cover (7).

Abstract: An on-board diagnostic tool can be used to monitor the spectral purity of a lithography laser, such as an excimer or molecular fluorine laser, instead of simply measuring the FWHM bandwidth of the laser. One such on-board tool utilizes a Fabry-Perot Interferometer etalon with a high-finesse and a small free spectral range, which provides the precision necessary to determine spectral purity, while providing the small footprint and light weight necessary to use the tool on-board. A high signal-to-noise detector can be used to improve the accuracy of the measurements.

Abstract: A throttle flap adjustment unit having a throttle flap fastened to a throttle flap shaft. The throttle flap shaft is rotatably journaled in a throttle flap end pipe. A servomotor is provided for adjusting the throttle flap shaft and is connected to the throttle flap shaft by a drive. A sensor unit is provided for determining a position of the throttle flap shaft. A cover is provided to be fastened onto the throttle flap end pipe, wherein the servomotor is positioned in the cover and controllable over an electrical coupling element, wherein the servomotor (6) has a front portion (12) oriented toward the throttle flap end pipe and formed as an end plate (13) for the drive shaft of the servomotor. The end plate (13) also serves to center the servomotor (6) with respect to the throttle flap end pipe (4) and also to center the servomotor (6) in the cover (7).

Abstract: An electromotive drive unit for an adjustable structure, for example a tabletop of a piece of furniture, includes at least one drive motor for adjusting a position of a structure. The drive motor includes a measuring unit for direct or indirect measurement of drive-specific parameters. A control unit is provided for controlling operation of the drive motor, and is acted upon by an evaluation unit for intervention in the adjustment process for the structure, when an actual value of the drive-specific parameters deviates from a desired value.

Abstract: A throttle valve for controlling air flow to an internal combustion engine in which a throttle valve body is mounted in an intake channel to control air flow through the intake channel to the internal combustion engine. A spindle is rotatably supported crosswise in the intake channel and the throttle body is secured to the spindle for rotation therewith between closed and open positions. The intake channel has a wall with an inside surface of elliptical cross-sectional shape, the throttle body being formed as a planar disk having a circular periphery. The throttle body in the closed position is inclined with respect to the inside surface of the wall and the opposite edges of the valve body are in peripheral contact with the inside surface.